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Report for this particular study.
Microfluidic Chip
Open main document
https://docs.google.com/document/d/1WBG1w-U90niLxVA-GlOR4WeIW7ef9x9nZD9nClXwl0E/edit
OCT 17-18, 2013
Firsts tests using 3D printing for microfluidic chip prototyping and fabrication.
Next time I need to continue the thermal annealing experiment, go beyond 150C.
We also need to test other designs with better sceals.
OCT 22, 2013
Thermal post-treatment of the polymer 3D printed part. Temp. set at 160C.
I also successfully transferred a micropattern from Spot-e to PCL
Microfluidic Chip
Open main document
https://docs.google.com/document/d/1WBG1w-U90niLxVA-GlOR4WeIW7ef9x9nZD9nClXwl0E/edit
OCT 17-18, 2013
Firsts tests using 3D printing for microfluidic chip prototyping and fabrication.
Next time I need to continue the thermal annealing experiment, go beyond 150C.
We also need to test other designs with better sceals.
OCT 22, 2013
Thermal post-treatment of the polymer 3D printed part. Temp. set at 160C.
I also successfully transferred a micropattern from Spot-e to PCL
Microfluidic Chip
OCT 17-18, 2013
Firsts tests using 3D printing for microfluidic chip prototyping and fabrication.
Open document
https://docs.google.com/document/d/1WBG1w-U90niLxVA-GlOR4WeIW7ef9x9nZD9nClXwl0E/edit
Next time I need to continue the thermal annealing experiment, go beyond 150C.
We also need to test other designs with better sceals.
To visualize the micro patterns of the chip
To do thermal post-processing of the device.
for taking pictures under microscope
Pattern:
Generic R&D
Context: Lab-on-a-chip
3D printed molds for PDMS-based microfluidics tests on neurons starting 2014-07-08 ending 2014-07-08
Surface temperature and current sensor starting 2016-07-05 ending 2016-07-30