Living Matter & Robotics

My research is dedicated to harnessing the unique capabilities of plants and fungi as model organisms for developing biohybrid sensors and robots. This approach offers several advantages, including sustainability, adaptability, and the potential to address environmental challenges. One significant benefit of utilizing non-animal systems as model organisms is their ethical and ecological advantages. These organisms can thrive in diverse ecosystems, offering versatility and accessibility for field applications. I employ two central techniques to realize this vision: electrophysiology and 3D printing. I utilize electrophysiological methods to delve into the electrical activity of these biological organisms, gaining insights into their responses to environmental stimuli. 3D printing technology plays a pivotal role in shaping the physical structures of biohybrid sensors and robots, facilitating real-time monitoring and controlled manipulation of the organisms. Central to my research is utilizing bioelectricity and electrogenesis methods, harnessing the electrical activity of plants and fungi. This research holds promise for agriculture, healthcare, and environmental conservation applications, offering innovative solutions while aligning with ethical and sustainable research practices.

Fungal model

I aim to utilize fungi as a model for biohybrid sensing, integrating transgenic systems, electrophysiology, and optogenetics. This interdisciplinary approach capitalizes on the distinctive characteristics of fungi to create advanced biohybrid sensing systems. My goal is to engineer fungi for highly precise and adaptable sensing capabilities across a wide range of applications. This involves seamlessly integrating genetic modifications with electrophysiological and optogenetic techniques, pushing the boundaries of biohybrid technology and opening up new possibilities for innovative sensing solutions.

Plant model

My research involves using plants as models for biohybrid sensing and robots, following similar methodologies as used with fungi, including transgenics, electrophysiology, and optogenetics. This approach aims to enhance plant health monitoring and endophenotyping by genetically modifying plants to act as sensitive sensors, recording and analyzing their electrical signals, and allowing precise control over their responses to external stimuli. This interdisciplinary approach contributes to better crop management, plant health, and improved agriculture practices.

Bioelectronics

Exploring flexible bioelectronics within the context of non-animal systems offers a cost-effective and sustainable pathway to develop advanced technologies that mimic biological processes. This approach prioritizes the design of bioelectronic devices and systems that are not only affordable but also portable and easily interfaceable. Leveraging tools like 3D printing and embracing a frugal science mindset, I aim to create versatile and accessible bioelectronic solutions. By harnessing the unique attributes of non-animal model systems, such as plants or fungi, I aspire to pioneer innovative applications in environmental monitoring, healthcare, and agriculture. This research embodies ethical research practices while delivering practical solutions that benefit a diverse range of industries and communities.