The idea is to end up with a generic μCosm/bioreactor/fermentor with a modular design that allows to be adapted by the user to match the specific farming/culturing/fermenting requirements of the chosen biological specie. The device will include sensors and electronic systems to monitor control and automatize all the process, making it more resilient, productive and sustainable in a such easy way that it becomes accessible also for non-experts.
There are several bioreactors open source version, but I did not find any that tried to grow more than one element.
Quantity | Materials | Price | Store |
1 | Tinyduino | 15 $ | - |
1 | Oled Display | 10 $ | link |
2 | Peristaltic motor | 10 $ | link |
1 | Switch | 0.5 $ | Fablab |
1 | Pump Air | 5 $ | link |
1 | Temperature senor | 3 $ | link |
1 | PH sensor | 50 $ | link |
1 | Neopixel | 7 $ | link |
1 | Vessel | 30 $ | link |
Attempt to use all electronic materials from the fablab repository. The rest of amazons and the methacrylate of a local store.
In the table above are the prices of each competition
The vessel is armed for me from methacrylate pieces, such as the board that controls the bioreactor (Tinyduino), the diffuser for light, in addition to the module where the bioreactor will be.
Create a special shield to be able to control the different actuators and sensors that can be used to control the bioreactor, to monitor the correct functioning and that what we are growing can be found in the most optimal conditions for this
Once finished know if spirulina reproduces correctly and is feasible to grow it in my own home.
I only have a couple of weeks to finish the whole process, some parts are already finished, like the module, and electronics, but I focus on the part of the vessel, since it needs to be correctly aligned, once this is finished, I will focus on the sensors for my bioreactor.
The most important thing is that the automatic control works correctly, that the sensors that have adapted to the bioreactor take the data and these are very correct, in order to obtain an optimal system for the growth of spirulina.