Principal investigator: Daniel Simon
Animals, plants, and all biological systems communicate in a language of ions and molecules. Modern technology, on the other hand, relies on a language of electrons. With organic electronic materials’ unique properties, we develop “bilingual” tools to bridge this gap.
Organic electronic materials possess a combination of both electronic and ionic/molecular conductivity. They have thus emerged as excellent tools for developing hybrid technologies that effectively interface biological systems with modern electronic technology such as computers and mobile phones – thus the field of organic bioelectronics.
In the Bioelectronics division of the Laboratory of Organic Electronics, we investigate this transduction between electronic signals and ionic/molecular signals in electroactive surfaces, “iontronic” chemical delivery and circuitry, biosensors, mimicking neural function, and many other areas.
We hope to elucidate fundamental processes in biochemistry and physiology, as well as develop tools for next-generation therapies, human-machine interfacing, and blurring the border between living and technological systems – for example, within our BioCom Lab project.
Body illustration above: Organic bioelectronics for pain therapy in the spinal cord. The ion pump delivers therapeutic neurotransmitters precisely at the location of pain signaling.