STTR PHASE I: Innovatve Laser Ablation Techniques for Increasing Catalyst Utilization in PEM Fuel Cells

Award Information
Agency:
National Science Foundation
Branch:
N/A
Amount:
$149,975.00
Award Year:
2008
Program:
STTR
Phase:
Phase I
Contract:
0740569
Agency Tracking Number:
0740569
Solicitation Year:
N/A
Solicitation Topic Code:
AM
Solicitation Number:
NSF 07-551
Small Business Information
Mound Laser & Photonics Center, Inc.
720 Mound Ave, COS-308, Miamisburg, OH, 45342
Hubzone Owned:
N
Socially and Economically Disadvantaged:
N
Woman Owned:
N
Duns:
927253195
Principal Investigator
 Ronald Jacobsen
 PhD
 (937) 865-4046
 rljacobsen@mlpc.com
Business Contact
 Ronald Jacobsen
Title: PhD
Phone: (937) 865-4046
Email: rljacobsen@mlpc.com
Research Institution
 University of Dayton
 Paul Murray
 300 College Park
Dayton, OH, 45469
 (937) 865-4046
 Nonprofit college or university
Abstract
This Small Business Technology Transfer (STTR) Phase I project will dramatically improve electrocatalyst utilization in PEM fuel cells to reduce their cost and ultimately assure their commercial viability in transportation applications. Using current technology, the cost of mass- produced PEM fuel cells is driven by the cost of platinum catalyst, yet the vast majority of the platinum is unutilized; dispersed largely onto inaccessible areas of the porous electrode. Using a novel thin-film laser ablation technique, this project seeks to achieve deposition of appropriately sized catalyst nanoparticles directly onto a polymer electrolyte precisely where they are needed. In combination with more durable electrode materials, this approach has the potential to reduce catalyst requirements to a tiny fraction of current levels. Program efforts will first optimize the laser ablation conditions to create and deposit dense distributions of non-agglomerated catalyst nanoparticles on solid polymer electrolyte films. These will then be used to fabricate and test membrane electrode assemblies (MEAs). The anticipated result is a more easily controlled, dry chemistry, high volume, reel-to-reel process to produce cheaper, more effective components that will make fuel cells viable for transportation applications, initially in scooters and low velocity Neighborhood Electric Vehicles, and ultimately in automobiles. The broader impact/commercial potential from the technology will be a method for deposition of fuel cell catalyst particles by laser ablation, resulting in affordable PEM fuel cells; this could have wide ranging impact on society and manufacturing science. The addition of a fuel cell charger will give all-electric vehicles increased range and usefulness. Ultimately replacing the internal combustion engines with practical, economical fuel cells which will provide an alternative that can reduce American dependence on foreign oil, reducing pollution, and green house gas emissions Applications may also extend to non-transportation sectors, such as remote, on-site power generators for buildings (bringing affordable energy to off-grid locations), and miniature fuel cells to power consumer electronics.

* information listed above is at the time of submission.

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