Mock Deku Lab

Department of Bioengineering

The Deku Lab

Materials, devices, and approaches for neural interfacing

Green brain with a computer chip

OUR mission

Our mission is to develop materials, devices, and therapeutic approaches for neural interfacing with a focus that is grounded in science and driven by the vision of developing treatments for specific unmet clinical needs.

We engineer thin-film materials and develops novel fabrication methods for creating chronically reliable neural interfaces, and studies their integration into the nervous system, including the brain and peripheral nerves. 

Research

Our lab focuses on the development of high-density, flexible microelectrode arrays for cortical interfacing, created from amorphous silicon carbide or polymer films.

More about our research

a thin array electrode, shown with electrical boards and someone holding with a blue glove, in the Deku lab at the Knight Campus
A group of people in PPE in a lab

People

We welcome, support, and advocate for community members from diverse backgrounds including those from different socioeconomic backgrounds, races and ethnicities, gender identities and sexualities, religions, disabilities, familial obligations, and other personal identities.

Meet the Deku Lab 

Resources

Explore resources from the Deku Lab, and descriptions of courses that Professors Deku teaches. 

Resources from the Deku Lab

Close-up shot of silicon wafer

Deku Lab News

Max receives the NSF GRFP for his proposal: "A Perfused Biohybrid Platform for Human Brain Organoid Research". Congrats, Max!
Knight Campus news features Emma's work on Iris128.
Felix Deku has been awarded an R01 grant from the National Institutes of Health (NIH) to support his innovative research in neuroengineering.

The Deku Lab 

Founded in 2022, the Deku Lab is a neural engineering research group within the University of Oregon's Phil and Penny Knight Campus for Accelerating Scientific Impact. Based in the Department of Bioengineering in Eugene, Oregon, the Deku Lab designs materials, devices, and approaches for neural interfacing to develop treatments for unmet clinical needs.