Team:Calgary/Project/Achievements

From 2014.igem.org

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<ul>
<ul>
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<li>Thoroughly researched our target markets and differing legislation that could affect our system</li>
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<li>Thoroughly researched our target markets and differing legislations that could affect our system</li>
-
<li>Connected with many different experts in the fields of infectious diseases, anti-malarials and public health to truly understand the needs and feasibilities</li>
+
<li>Connected with many different experts in the fields of infectious diseases, anti-malarial medications and public health to truly understand the needs and feasibility of the project</li>
-
<li>Connected with the foremost authority in low cost diagnostics, Foundation for Innovative New Diagnostics (FIND) to discuss the viability of our design and concept</li>
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<li>Connected with the foremost authority in low cost diagnostics, Foundation for Innovative New Diagnostics (FIND), to discuss the viability of our design and concept</li>
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<li>Connected with a small village clinic in rural Uganda, giving an opportunity to see the facility as well as discuss the topic with local physicians</li>
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<li>Connected with a small village clinic in rural Uganda, which gave an opportunity to see the facility as well as discuss the topic with local physicians</li>
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<li>Featured iGEM and our project on a global stage at the United Nations and created discussion regarding the advancement of synthetic biology</li>
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<li>Featured iGEM and our project on a global stage at the United Nations, in Geneva, and created discussion regarding the advancement of synthetic biology</li>
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<li>Cost analysis of our prototype and system to ensure that this project is feasible in developing nations</li>
<li>Cost analysis of our prototype and system to ensure that this project is feasible in developing nations</li>
<li>Quantified the visible threshold of detection for several reporters using time-lapsed cell count and absorbance readings, as well as a programmed colour sensor</li>
<li>Quantified the visible threshold of detection for several reporters using time-lapsed cell count and absorbance readings, as well as a programmed colour sensor</li>
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<li>Programmed an Arduino UNO microcontroller, colour sensor and LCD screen to detect colour change among detection chambers</li>
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<li>Programmed an Arduino UNO microcontroller, colour sensor, and LCD screen to detect colour change among detection chambers, allowing for quantification of the colour</li>
<li>Applied circuitry of a heating pad/temperature considerations for ideal isothermal PCR conditions</li>
<li>Applied circuitry of a heating pad/temperature considerations for ideal isothermal PCR conditions</li>
<li>Used Autodesk Maya Software to visually model and represent our system</li>
<li>Used Autodesk Maya Software to visually model and represent our system</li>

Revision as of 20:35, 11 October 2014

Achievements

Policies and Practices we:

  • Thoroughly researched our target markets and differing legislations that could affect our system
  • Connected with many different experts in the fields of infectious diseases, anti-malarial medications and public health to truly understand the needs and feasibility of the project
  • Connected with the foremost authority in low cost diagnostics, Foundation for Innovative New Diagnostics (FIND), to discuss the viability of our design and concept
  • Connected with a small village clinic in rural Uganda, which gave an opportunity to see the facility as well as discuss the topic with local physicians
  • Featured iGEM and our project on a global stage at the United Nations, in Geneva, and created discussion regarding the advancement of synthetic biology

Modelling:

  • Designed and manufactured a prototype of informed design based on our biological system
  • Cost analysis of our prototype and system to ensure that this project is feasible in developing nations
  • Quantified the visible threshold of detection for several reporters using time-lapsed cell count and absorbance readings, as well as a programmed colour sensor
  • Programmed an Arduino UNO microcontroller, colour sensor, and LCD screen to detect colour change among detection chambers, allowing for quantification of the colour
  • Applied circuitry of a heating pad/temperature considerations for ideal isothermal PCR conditions
  • Used Autodesk Maya Software to visually model and represent our system
  • Used Solid-works Software to model fluid flow analysis for different prototype designs