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− | <td style="border: 0px !important;margin:-100px 0 -100px 0 !important | + | <td style="border: 0px !important;margin:-100px 0 -100px 0 !important;">Micro-organisms has been developed as micro-robots in drug delivery, genetic and cellular therapeutics. Compared with mechanical robots, cell-based micro-robots have a more complete controlling system and a better energy conversion system. However, how to achieve precise control over them remains a great challenge to researchers. C.Reinhardtii, with its stronger motility and inborn light sensing system, has become a desired choice to make cell-based micro-robots. |
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<td style="border: 0px !important;"><img src="https://static.igem.org/mediawiki/2019/a/a0/T--DUT_China_B--1.1.svg" class="img-responsive" alt=""></td> | <td style="border: 0px !important;"><img src="https://static.igem.org/mediawiki/2019/a/a0/T--DUT_China_B--1.1.svg" class="img-responsive" alt=""></td> |
Revision as of 13:04, 16 October 2019
![](https://static.igem.org/mediawiki/2019/2/2f/T--DUT_China_B--chlamydomonas.png)
We want to achieve red light navigated movement in Chlamydomonas Reinhardtii, making it easier to function as cell micro-robots. With about 10 um size and strong motion ability, C.Reinhartii is the ideal chassis organism for operation.
Micro-organisms has been developed as micro-robots in drug delivery, genetic and cellular therapeutics. Compared with mechanical robots, cell-based micro-robots have a more complete controlling system and a better energy conversion system. However, how to achieve precise control over them remains a great challenge to researchers. C.Reinhardtii, with its stronger motility and inborn light sensing system, has become a desired choice to make cell-based micro-robots. | |