Difference between revisions of "20210330 meeting"

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- To trap cells we can use many smaller, singular traps, or we could cluster cells together using droplet generation, and then use a big trap instead.
 
- To trap cells we can use many smaller, singular traps, or we could cluster cells together using droplet generation, and then use a big trap instead.
 +
 
- Designs have to take into account that the smallest resolution of our photolithography is about 20 microns.
 
- Designs have to take into account that the smallest resolution of our photolithography is about 20 microns.
 +
 
- We can dissolve nutrition into the fluid itself so we don't have to diffuse gasses into the cell chambers as part of the design
 
- We can dissolve nutrition into the fluid itself so we don't have to diffuse gasses into the cell chambers as part of the design
 +
 
- We can make fewer "serpetines" when making a diffusion gradient by making use of a special type of design. "Altered tree shape". Then there's less risk of blockage in the channels.
 
- We can make fewer "serpetines" when making a diffusion gradient by making use of a special type of design. "Altered tree shape". Then there's less risk of blockage in the channels.
 +
 
- We can use
 
- We can use

Revision as of 15:12, 30 March 2021

Meetings notes 30.03.2021 (Written by Jan M.)

Brainstorming:

- To trap cells we can use many smaller, singular traps, or we could cluster cells together using droplet generation, and then use a big trap instead.

- Designs have to take into account that the smallest resolution of our photolithography is about 20 microns.

- We can dissolve nutrition into the fluid itself so we don't have to diffuse gasses into the cell chambers as part of the design

- We can make fewer "serpetines" when making a diffusion gradient by making use of a special type of design. "Altered tree shape". Then there's less risk of blockage in the channels.

- We can use