Team:Groningen/19 July 2010

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As aspected the monomeric chaplins helped to disperse the oil throughout the water, this is nicely visualized by the dispersion of the CongoRed throughout the tube. The assembled chaplins do not show this behavior and seem to have grouped within the oil, which is still on top of the water.
As aspected the monomeric chaplins helped to disperse the oil throughout the water, this is nicely visualized by the dispersion of the CongoRed throughout the tube. The assembled chaplins do not show this behavior and seem to have grouped within the oil, which is still on top of the water.
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In close up, it is observed that the monemeric chaplins do indeed help to disperse the oil in the water. As one can see, small droplets of oil are abundant in the water + Chaplins, were no droplets are observed at the same timepoint after shaking in the control. <br>
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In close up, it is observed that the monemeric chaplins do indeed help to disperse the oil in the water. As one can see, small droplets of oil are abundant in the water + Chaplins, were no droplets are observed at the same timepoint after shaking in the control.  
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{{Team:Groningen/Footer}}

Revision as of 14:51, 24 October 2010

iGEM Groningen 2010

Hydrophobofilm
pushing coatings into a greener future

Week 29


Modellers:


After lots of meetings the time has come to really start up the modelling part of iGEM. This week we thought about what to model and how. We have looked up and read lots of articles.


David


Drying biofilms


After formation of biofilm on the pieces of wood and ceramics, the material was taken out of the wells plates and put into empty petri dishes. This was put into the 37 C oven for 3 days. Inspection of these dried in biofilms was done by stereomicroscopy.


David & Peter


Dispersant effects chaplin proteins


5 ml of demiwater and 0.5 ml olive oil, adding 500 microliter of 15 mg/ml monomeric chaplins to one tube, 0.5 ml vortexed assembled chaplins, and two controls without chpls added. Also ad 30 microliter congo red solution (3 mg/micro liter) to all samples exept one of the two controls. This congo red will stain the assembled chapl Then vortex for 1 min add max speed, then let the samples sit for 10 min. After this closeup pictures are taken of the oil water interface.


Dispersant1GR.jpg


Before Shaking


Left to right: Water+oil, Water+oil+CongoRed+AssembledChaplins, Water+Oil+CongoRed+MonomericChaplins, Water+Oil+CongoRed


Dispersant2GR.jpg


After Shaking:


Left to right: Water+oil, Water+oil+CongoRed, Water+Oil+CongoRed+MonomericChaplins, Water+Oil+CongoRed+AssembledChaplins


As aspected the monomeric chaplins helped to disperse the oil throughout the water, this is nicely visualized by the dispersion of the CongoRed throughout the tube. The assembled chaplins do not show this behavior and seem to have grouped within the oil, which is still on top of the water.


Dispersant4GR.jpg Dispersant3GR.jpg

Close ups: Shortly after shaking, left: Control (H20 + Oil), right (Water + Oil + Monomeric Chaplins).


In close up, it is observed that the monemeric chaplins do indeed help to disperse the oil in the water. As one can see, small droplets of oil are abundant in the water + Chaplins, were no droplets are observed at the same timepoint after shaking in the control.


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