Modeling
Multiscale transport and charge-transfer models that establish design rules for bioelectrochemical systems.
I combine electrochemistry, microelectronics, and microbiology to create sensing platforms and living materials for environmental monitoring, sustainable synthesis, and energy technologies.

My work moves between predictive models, material and device fabrication, and the function of electroactive living systems.
Multiscale transport and charge-transfer models that establish design rules for bioelectrochemical systems.
Microelectrodes, biohybrid interfaces, and microbial routes to functional carbon and metal nanomaterials.
Living sensors and electrocatalytic materials that respond to real environmental and energy challenges.
I develop systems in which biology does more than detect or respond: it fabricates, transports charge, and enables function. My research bridges microbial electron transfer with electrochemical device design, from plant and environmental sensing to microbial synthesis of catalytic nanomaterials.
Grounded in chemical engineering, materials science, physical electronics, and microbiology, I aim to make biological interfaces more predictable, manufacturable, and useful.

A selection of work across bioelectrochemistry, sensing, living materials, and microelectronic interfaces.
Dotan, T. et al. · Under review
Dotan, T. et al.
Dotan, T., Jog, A. & Shacham-Diamand, Y.
Dotan, T. et al.
Dotan, T. et al.
Dotan, T. et al.
Go, Y. K. et al.
Kadan-Jamal, K. et al.
I welcome conversations about research collaborations, speaking opportunities, and faculty positions.