Difference between revisions of "Team:Tsinghua/Hardware"

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<p align="center"><strong>Hardware: E-light 1.0</strong><br>
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<h2>HARDWARE</h2>
  The  E-light 1.0 hardware system has 3 major components: the light-exposure &amp; bacterial  culture system, the controlling circuit and the computer interacting port.<br>
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<h4>Hardware: E-light 1.0</h4>
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<p> The  E-light 1.0 hardware system has 3 major components: the light-exposure &amp; bacterial  culture system, the controlling circuit and the computer interacting port.<br>
 
   The  light-exposure &amp; bacterial culture system is based on a 24-well plate  coupled with tri-color LEDs. The controlling circuit utilizes 3 AT89S52-24PU  DIP-40 SCMs (single chip microcomputer) to execute programmed-controlling of  the 24 tri-color LEDs, while the computer interacting port monitors the whole  system through given protocol sequences. The ultimate result is the  programmable operation and real-time monitoring of light-exposure (on both  timing and wave-length) on every single well.<br>
 
   The  light-exposure &amp; bacterial culture system is based on a 24-well plate  coupled with tri-color LEDs. The controlling circuit utilizes 3 AT89S52-24PU  DIP-40 SCMs (single chip microcomputer) to execute programmed-controlling of  the 24 tri-color LEDs, while the computer interacting port monitors the whole  system through given protocol sequences. The ultimate result is the  programmable operation and real-time monitoring of light-exposure (on both  timing and wave-length) on every single well.<br>
 
   Table below shows the material and components for this delicate device:</p>
 
   Table below shows the material and components for this delicate device:</p>
  
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   <tr>
 
     <td width="553" colspan="2" valign="top"><p align="center">Bill of Materials</p></td>
 
     <td width="553" colspan="2" valign="top"><p align="center">Bill of Materials</p></td>
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<p>&nbsp;</p></body>
 
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   <strong>Software: E-code 1.0</strong><br>
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   <h4Software: E-code 1.0</h4>
  The  E-code 1.0 software system aims to provide convenient commanding for users of  the E-light hardware system. The software provides two operating modes: the  E.coli-code mode is able to convert any given information into light-coded  files, and therefore turn these files into actual light-exposure commands of  the E-light hardware system. With the help of the coding-plasmids from our  CRISPR-Recombinase system, we can eventually store any information into the  E.coli DNA and of course, extract the information later on through sequencing.  The self-code mode provides more flexible input options, enabling users to  program the light-exposure commands manually for every single  bacterial-culture-unit. Thus, combined with our light-switch, the user is able  to gain better control over the bacteria&rsquo;s metabolism pathways.<br>
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<p> The  E-code 1.0 software system aims to provide convenient commanding for users of  the E-light hardware system. The software provides two operating modes: the  E.coli-code mode is able to convert any given information into light-coded  files, and therefore turn these files into actual light-exposure commands of  the E-light hardware system. With the help of the coding-plasmids from our  CRISPR-Recombinase system, we can eventually store any information into the  E.coli DNA and of course, extract the information later on through sequencing.  The self-code mode provides more flexible input options, enabling users to  program the light-exposure commands manually for every single  bacterial-culture-unit. Thus, combined with our light-switch, the user is able  to gain better control over the bacteria&rsquo;s metabolism pathways.<br>
 
   After successfully constructing all the systems required and  confirming its efficacy, we can bridge the light-switchable TCS and the  dCas9-recombines system together. In this way, precise gene editing and  information storing can be achieved by utilizing the light system to regulate  the dCas9-recombinase hybrid. </p>
 
   After successfully constructing all the systems required and  confirming its efficacy, we can bridge the light-switchable TCS and the  dCas9-recombines system together. In this way, precise gene editing and  information storing can be achieved by utilizing the light system to regulate  the dCas9-recombinase hybrid. </p>
  

Revision as of 02:09, 19 September 2015

HARDWARE

Hardware: E-light 1.0

The E-light 1.0 hardware system has 3 major components: the light-exposure & bacterial culture system, the controlling circuit and the computer interacting port.
The light-exposure & bacterial culture system is based on a 24-well plate coupled with tri-color LEDs. The controlling circuit utilizes 3 AT89S52-24PU DIP-40 SCMs (single chip microcomputer) to execute programmed-controlling of the 24 tri-color LEDs, while the computer interacting port monitors the whole system through given protocol sequences. The ultimate result is the programmable operation and real-time monitoring of light-exposure (on both timing and wave-length) on every single well.
Table below shows the material and components for this delicate device:

Bill of Materials

Materials

Amount

IC: AT89S52

3

IC: STC89C52

1

Minimum system circuit

3

Common cathode RGB tri-color LED

24

8050 triode

24*3

1K resistor

24*3

USB-RS232

1

Flat cable &Ejector plate& Cable

several

 

</body>
 <h4Software: E-code 1.0</h4>

The E-code 1.0 software system aims to provide convenient commanding for users of the E-light hardware system. The software provides two operating modes: the E.coli-code mode is able to convert any given information into light-coded files, and therefore turn these files into actual light-exposure commands of the E-light hardware system. With the help of the coding-plasmids from our CRISPR-Recombinase system, we can eventually store any information into the E.coli DNA and of course, extract the information later on through sequencing. The self-code mode provides more flexible input options, enabling users to program the light-exposure commands manually for every single bacterial-culture-unit. Thus, combined with our light-switch, the user is able to gain better control over the bacteria’s metabolism pathways.
After successfully constructing all the systems required and confirming its efficacy, we can bridge the light-switchable TCS and the dCas9-recombines system together. In this way, precise gene editing and information storing can be achieved by utilizing the light system to regulate the dCas9-recombinase hybrid.

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