Difference between revisions of "Team:Tec-Chihuahua/projectabout"

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             <p class="margin attention left">The first idea we had was the measurement of bioluminescence by means of a biosensor; but this project was so simple we decided it wasn’t what we wanted. Then we thought about the production of penicillin using fibroblasts; and though we did a lot of research, we discarded this idea because of the complex metabolic route the production of this antibiotic implied.</p>
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             <p class="margin attention left">In science, researchers find themselves face to face with a common situation called “you will likely end up doing a research you’d never imagined”. In our particular case, this happened to us more than once. </p>
 
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         <p class="margin attention left">On April 1, we decided to change our project. We realized that working with L-DOPA was a viable option. This new project had the purpose of producing dopamine in fibroblasts and creating a biosensor that could help us to quantify the amount of dopamine excreted from the body, in order to detect Parkinson’s disease in an early stage. As the time passed by, we noticed that the measurement of this neurotransmitter was quite difficult because we needed to get dopamine specifically from the central nervous system, but we found out that the dopamine excreted from the body comes along with the dopamine from the peripheral nervous system. We tried to find a solution to this problem by looking for metabolites excreted only by the central nervous system. However, we slowly gave up on this project because we weren’t able to find a way to continue with it. At this point, we were quite disappointed because we didn't knew whether to keep on with this project or to start with another one. We had already discarded a lot of ideas and did a lot of research with each one. We took some time to think about this problem, and finally we decided to change the project.</p>
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         <p class="margin attention left">Our first idea was the measurement of bioluminescence by means of a biosensor but we decided we wanted a bigger challenge. We then thought about the possibility to produce penicillin using fibroblasts. After a lot of research, we discarded this idea because of its complexity. On April 1st, we decided to change our project keeping two of the original ideas but also working with L-DOPA. This new project had the purpose of producing dopamine in fibroblasts and creating a biosensor that could help us quantify the amount of dopamine excreted from the body, in order to detect Parkinson’s disease in an early stage. As the time passed by, we noticed that the measurement of this neurotransmitter was quite difficult because we needed to get dopamine specifically from the central nervous system, but we found out that the dopamine excreted from the body comes along with the dopamine from the peripheral nervous system. We tried to find a solution to this problem by looking for metabolites excreted only by the central nervous system. However, we slowly gave up on this project because we weren’t able to find a way to continue with it. At this point, we didn't knew whether to keep on with this project or to start a new one.</p>
 
         <img src="https://static.igem.org/mediawiki/igem.org/a/af/T--Tec-Chihuahua--AboutDiagram.jpg" alt="Diagram Explaining our Project" class="img-responsive center-block margin">
 
         <img src="https://static.igem.org/mediawiki/igem.org/a/af/T--Tec-Chihuahua--AboutDiagram.jpg" alt="Diagram Explaining our Project" class="img-responsive center-block margin">
         <p class="margin attention left">The team agreed to continue with a project that consisted in the use of myxobacteria to attack fungus and termites found in wood that's mainly used for construction. Nevertheless, we decided to change the project one more time because we realized that there were already a lot of products for this purpose in the market; and it wouldn’t be easy to beat them.</p>
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         <p class="margin attention left">After a brainstorm (in which we decided Laccase was not a good option), we found BBa_I742109,  a biobrick extracted from Medicago sativa, related to a metabolic pathway of L-DOPA. At this point we were convinced that we wanted to work in the solution of a local problem and we discovered that alfalfa is one of the main crops of our state. In addition, some team members had already worked with Myxobacteria, and had proved this organism’s ability to inhibit (at least partially) isolated fungus by confronting them. This members shared their experience with this amazing organisms and got the rest of the team interested. We fell in love with Myxobacteria, powerful microorganisms that were isolated from ground of our own state.</p>
         <p class="margin attention left">In spite of that, the project wasn't completely changed because we were still going to use myxobacteria but this time for fighting fungus found in distinct crops, especially alfalfa because this is a local problem.</p>
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         <p class="margin attention left">By doing more research we found out that there were a lot of cultivations affected by a broad variety of fungus. Chihuahua, being the 2nd biggest producer of alfalfa (a key product to feed cows) as well as a cattle ranching state, suffers the loss of many crops due to phytopatogenic fungus. This way we found the problematic we wanted to attack, and the project Myxobacteria Tec-Chihuahua emerge.</p>
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         <h2>Our Motivation</h2>
 
         <h2>Our Motivation</h2>
 
         <p class="attention left">Environmental issues derive from the development of chemical products that achieve their purposes but can cause damage in long term. Therefore, the need of more specific and eco-friendly solutions arises. Synthetic biology allows us to enhance useful properties on organisms such as bacterias.</p>
 
         <p class="attention left">Environmental issues derive from the development of chemical products that achieve their purposes but can cause damage in long term. Therefore, the need of more specific and eco-friendly solutions arises. Synthetic biology allows us to enhance useful properties on organisms such as bacterias.</p>
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Revision as of 00:00, 20 October 2016

Igem Tec 2016

About our Project

In science, researchers find themselves face to face with a common situation called “you will likely end up doing a research you’d never imagined”. In our particular case, this happened to us more than once.

Our first idea was the measurement of bioluminescence by means of a biosensor but we decided we wanted a bigger challenge. We then thought about the possibility to produce penicillin using fibroblasts. After a lot of research, we discarded this idea because of its complexity. On April 1st, we decided to change our project keeping two of the original ideas but also working with L-DOPA. This new project had the purpose of producing dopamine in fibroblasts and creating a biosensor that could help us quantify the amount of dopamine excreted from the body, in order to detect Parkinson’s disease in an early stage. As the time passed by, we noticed that the measurement of this neurotransmitter was quite difficult because we needed to get dopamine specifically from the central nervous system, but we found out that the dopamine excreted from the body comes along with the dopamine from the peripheral nervous system. We tried to find a solution to this problem by looking for metabolites excreted only by the central nervous system. However, we slowly gave up on this project because we weren’t able to find a way to continue with it. At this point, we didn't knew whether to keep on with this project or to start a new one.

Diagram Explaining our Project

After a brainstorm (in which we decided Laccase was not a good option), we found BBa_I742109, a biobrick extracted from Medicago sativa, related to a metabolic pathway of L-DOPA. At this point we were convinced that we wanted to work in the solution of a local problem and we discovered that alfalfa is one of the main crops of our state. In addition, some team members had already worked with Myxobacteria, and had proved this organism’s ability to inhibit (at least partially) isolated fungus by confronting them. This members shared their experience with this amazing organisms and got the rest of the team interested. We fell in love with Myxobacteria, powerful microorganisms that were isolated from ground of our own state.

By doing more research we found out that there were a lot of cultivations affected by a broad variety of fungus. Chihuahua, being the 2nd biggest producer of alfalfa (a key product to feed cows) as well as a cattle ranching state, suffers the loss of many crops due to phytopatogenic fungus. This way we found the problematic we wanted to attack, and the project Myxobacteria Tec-Chihuahua emerge.

Our Motivation

Environmental issues derive from the development of chemical products that achieve their purposes but can cause damage in long term. Therefore, the need of more specific and eco-friendly solutions arises. Synthetic biology allows us to enhance useful properties on organisms such as bacterias.

Diagram of parts