High Power Density Electrochemical Energy Conversion Devices
Tech ID: 33692 / UC Case 2024-935-0
Brief Description
This
invention significantly enhances the power density of fuel cells through
precise nanoscale control of the catalyst layer and the introduction of novel
catalytic materials.
Full Description
Researchers
at UC Irvine have developed advanced nanofabrication techniques to produce
electrochemical energy conversion devices with significantly higher power
densities than current solutions. The technology focuses on precise control
over the catalyst layer within the membrane electrode assembly (MEA) and the
use of novel catalytic materials to improve performance drastically. The
process leverages highly controlled templating techniques at nanoscale to
produce high-efficiency fuel cells with enhanced active site placement and
reduced mass transport losses.
Suggested uses
- Transportation fuel cells for light and heavy-duty vehicles.
- Stationary power generation for zero-emission infrastructure.
- Portable power sources where high energy density is crucial.
- Potential applications in other electrochemical devices requiring high power density.
Advantages
- Significant improvement in power density over state-of-the-art (SoA) fuel cells.
- Precise nanoscale control of catalyst placement enhances reaction efficiency.
- Integration of novel catalytic materials for improved performance.
- Reduction in mass transport losses and higher catalyst utilization.
- Compatibility with existing membrane electrode assembly designs.