Team:SDU-Denmark/project-activities

From 2010.igem.org

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(Published an article in The Engineer)
(Student aim on gold for their synthetic E. coli, that flee from blue light)
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We give you here a translation of the article and a link to the original story. Press this link to read [http://ing.dk/artikel/112574-studerende-satser-paa-guld-for-syntetisk-e-coli-der-flygter-fra-blaat-lys the original article in danish]
We give you here a translation of the article and a link to the original story. Press this link to read [http://ing.dk/artikel/112574-studerende-satser-paa-guld-for-syntetisk-e-coli-der-flygter-fra-blaat-lys the original article in danish]
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=== Student aim on gold for their synthetic E. coli, that  flee from blue light ===
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=== Students aim for gold for their synthetic ''E. coli'', that  flee from blue light ===
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'''Students from Southern University is currently developing a photo tactical bacterium that converts light into mechanical work.'''
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'''Students from the University of Southern Denmark are currently developing a phototaxic bacterium that converts light into mechanical work.'''
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''By Robin Engelhardt, Saturday 02 October 2010 pm. 11:00''
''By Robin Engelhardt, Saturday 02 October 2010 pm. 11:00''
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A team bioengineer students from Southern University is getting ready for the annual iGEM competition to be held at MIT in Cambridge, USA, 5th-8th November. They have created an artificial E. coli bacteria with a photo sensor that enables the bacterium to move away when you shine the blue light on it.
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A team bioengineer students from Southern University is getting ready for the annual iGEM competition to be held at MIT in Cambridge, USA, on November 5th-8th. They have created an artificial ''E. coli'' bacterium with a photo sensor which causes the bacterium to move away when you shine blue light on it.
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There are still a few things missing, “says instructor Mike Barnkob, but he is confident that they have a good project: “E. coli bacteria have some flagella they can wing. We found out that you can control them by combining with genes from other bacteria and then shine light on them. Blue light causes them to turn about and if it is dark in a different direction, they move there.
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There are still a few things missing, says instructor Mike Barnkob, but he is confident that they have a good project: "''E. coli'' bacteria have some flagella they can flap. We found out that you can control them by combining genes from other bacteria and then expose them to light. Blue light causes them to turn about and if it is dark in a different direction, they move there."
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Right now the team from SDU got the first proof that the system works and they are now conducting further characterization to see what types of light, it responds to, and how quickly they can get the bacterium to move.
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The team from the University of Southern Denmark have just got the first proof that the system works and they are now conducting further characterization to see what types of light it responds to, and how quickly they can get the bacterium to move.
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The pictures show two petri dishes, respectively. a normal and a synthetic bacterial culture. Both have grown for 44 hours, and both have been covered halfway over. One can see how the manipulated culture moves toward the dark area.
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The pictures show two petri dishes, respectively a normal and a synthetic bacterial culture. Both have grown for 44 hours, and both have been half covered. One can see how the manipulated culture moves towards the dark area.
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The idea is that at a later stage to create a flow in a micro tube by coating the pipe with a layer of the new type of E. coli.
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The idea is at some point to be able to create a flow in a micro tube by coating the tube with a layer of the new type of ''E. coli''.
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“It has actually proved to be a problem to mix liquids properly in very small areas,” explains Barnkob.
“It has actually proved to be a problem to mix liquids properly in very small areas,” explains Barnkob.
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“By adding the bacteria, they can be whipped into the liquid with their little tails, which means you can control how liquids mix in small micro-tubes.”
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“By adding the bacteria, they can whip the liquid with their little tails, which means that you can control how liquids mix in small micro-tubes.”
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'''Great interest''' <br>
'''Great interest''' <br>
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IGEM stands for International Genetically Engineered Machine and allows students from universities around the world to participate in the emerging field of synthetic biology, which are sometimes also called the do-it-yourself biology.
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iGEM is short for International Genetically Engineered Machine and allows students from universities around the world to participate in the emerging field of synthetic biology, which is sometimes also called the do-it-yourself biology.
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The competition has been held since 2004, and Denmark has been represented by two teams since 2009 - one from Southern University and one from DTU.
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The competition has been held since 2004, and Denmark has been represented by two teams since 2009 - one from The University of Southern Denmark and one from the Technical University of Denmark.
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“What we thought was really cool about this project, is that it is fundamental that we know that light at a bacterium capable of converting light energy to a form of mechanical work,” says Barnkob.
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“What we thought was really cool about this project, is the principle of converting light energy to mechanical energy by shining light on a bacterium,” says Barnkob.
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“The important thing about iGEM’s getting to grips with the biological programming and see what you can do with it and what not.”
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“The important thing about iGEM is getting to grips with the biological programming language and find out what you can do with it and what you cannot.”
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Over the past six years, students have built so-called BioBricks that form the foundation for programming biological organisms, which can range from being bacterial cameras and bio-beer to biological landmine detectors.
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Over the past six years, students have built so-called BioBricks that make up the foundation for programming biological organisms, which range from bacterial cameras and bio-beer to biological landmine detectors.
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Last year the students from Southern University made a bacteria-filled bandage that ensures a better supply of antibiotics for a wound. The team from DTU in 2009 got a gold medal for the design of a ‘redoxilator’ that glows green when the bacterial metabolism is high and ready to produce.
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Last year the students from Univerity of Southern Denmark made a bacteria-filled bandage that ensures a better supply of antibiotics to a wound. The team from the Technical University of Denmark got a gold medal in 2009 for the design of a ‘redoxilator’ that emits a green glow when the bacterial metabolism is high and ready for production.
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“I will, in all modesty say we’ve got a super team with all 14 students from physics to biomedicine, molecular biology and medicine to philosophy,” says Barnkob from SDU.
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“I will say, in all modesty, that we’ve got a super team with 14 students from physics to biomedicine, molecular biology and medicine to philosophy,” says Barnkob from the University of Southern Denmark.
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“We hope to get gold in Boston. Last year we got bronze, and this year we believe that we have gotten a lot further.“
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“Of course we hope to win gold in Boston. Last year we got bronze, and this year we believe that we can make it a lot further.“
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Revision as of 17:22, 18 October 2010