Visual prototype of data collection dome, physical computing schematic, for bioelectrical data, temperature, humidity, and CO2.
As part of my sensor exploration I tested the application of arduino based oscilloscope to collect electrical charge from mycelia samples. The project focused on measuring action potential spikes produced by mycelial activity. Through this exploration, I developed skills in oscilloscope calibration and learned to identify distinctive mycelial electrical signatures.
At the Beyond Borders Symposium, I presented my thesis research, showcasing an Electrical Charge Sensor designed to measure both mycelial activity and the participant's own electrical charge. I set up the sensors to allow attendees to interact with the technology, measuring their own electrical charge in real time. This hands-on experience captivated participants, sparking curiosity about the potential applications of this technology for both biological organisms like mycelia and human interaction.
As part of an experiment on understanding more of the environmental changes and controls of mycelia, I decided to make an Arduino-based humidity control based on temperature and humidity readings, as well as CO2 readings. Understanding the mechanics behind the system led me to understand more how I could potentially build an incubator for the organisms that I grow. Understanding these mechanics is important because it is part of the design process of the culmination of this research in general.