Durability Improvements Through Degradation Mechanism Studies | Zendy

Rodney L. Borup | Zendy; Rangachary Mukundan | Zendy; Dusan Spernjak | Zendy; Andrew M. Baker | Zendy; Roger Lujan | Zendy; David A. Langlois | Zendy; Rajesh Ahluwalia | Zendy; D. Papadia | Zendy; Adam Z. Weber | Zendy; Ahmet Kusoglu | Zendy; Shouwnen Shi | Zendy; Karren L. More | Zendy; Steve Grot | Zendy

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Durability Improvements Through Degradation Mechanism Studies

Author(s) -

Rodney L. Borup,

Rangachary Mukundan,

Dusan Spernjak,

Andrew M. Baker,

Roger Lujan,

David A. Langlois,

Rajesh Ahluwalia,

D. Papadia,

Adam Z. Weber,

Ahmet Kusoglu,

Shouwnen Shi,

Karren L. More,

Steve Grot

Publication year - 2015

Language(s) - English

Resource type - Reports

DOI - 10.2172/1207752

Subject(s) - durability , degradation (telecommunications) , commercialization , component (thermodynamics) , mechanism (biology) , electrolyte , computer science , materials science , chemistry , business , composite material , physics , telecommunications , electrode , marketing , quantum mechanics , thermodynamics

The durability of polymer electrolyte membrane (PEM) fuel cells is a major barrier to the commercialization of these systems for stationary and transportation power applications. By investigating cell component degradation modes and defining the fundamental degradation mechanisms of components and component interactions, new materials can be designed to improve durability. To achieve a deeper understanding of PEM fuel cell durability and component degradation mechanisms, we utilize a multi-institutional and multi-disciplinary team with significant experience investigating these phenomena.

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