Team:GeorgiaTech
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|[[Image:GeorgiaTech_team.png|400px|center]] | |[[Image:GeorgiaTech_team.png|400px|center]] | ||
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- | | | + | |Objective – planned results and significance of work. |
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+ | The objective for our project is ultimately to express human integrins on the surface of E.Coli cells. By expressing | ||
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+ | human integrins on bacteria cells, we can manipulate the cells to respond to specific stimuli in their environment. The | ||
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+ | specific integrin we are trying to express on the E.Coli cell has the ability to bind to fibrinogen. If it is successfully placed | ||
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+ | on the cell, the cell will be able to bind to fibrinogen, effectively coagulating or clotting blood. This has applications in the | ||
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+ | medical field, where the integrin-containing E.Coli (BioBots, as we like to call them) can be administered as a topical solution | ||
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+ | and prevent excessive bleeding on major surface wounds. A bacteria’s ability to express integrins has other applications as | ||
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+ | well. Since the bacteria will be able to send and receive signals to its environment, the bacteria can theoretically detect and | ||
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+ | locate cancer cells, as well as any other specific cell or structure of concern. These novel bacterial robots will represent the | ||
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+ | first prokaryotic use of heterodimeric integrins for a sensory function and will represent a platform that will enable future | ||
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+ | “design” of integrins sensory function through molecular evolution techniques. | ||
+ | |- | ||
|align="center"|[[Team:GeorgiaTech | Team GeorgiaTech]] | |align="center"|[[Team:GeorgiaTech | Team GeorgiaTech]] | ||
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Revision as of 16:35, 9 August 2013
Objective – planned results and significance of work.
The objective for our project is ultimately to express human integrins on the surface of E.Coli cells. By expressing human integrins on bacteria cells, we can manipulate the cells to respond to specific stimuli in their environment. The specific integrin we are trying to express on the E.Coli cell has the ability to bind to fibrinogen. If it is successfully placed on the cell, the cell will be able to bind to fibrinogen, effectively coagulating or clotting blood. This has applications in the medical field, where the integrin-containing E.Coli (BioBots, as we like to call them) can be administered as a topical solution and prevent excessive bleeding on major surface wounds. A bacteria’s ability to express integrins has other applications as well. Since the bacteria will be able to send and receive signals to its environment, the bacteria can theoretically detect and locate cancer cells, as well as any other specific cell or structure of concern. These novel bacterial robots will represent the first prokaryotic use of heterodimeric integrins for a sensory function and will represent a platform that will enable future “design” of integrins sensory function through molecular evolution techniques. |
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