Synthesis of Nanostructured Mesoporous Nickel Materials for Energy Storage Applications

With the advent of fuel cell technology, people began to believe implementation of a zero-emission energy system through the construction of a hydrogen-based energy infrastructure. The conventional system for hydrogen production is water electrolysis; however, the production cost is far too expensive for widespread adoption due to the usage of noble metals required as electrocatalysts. Thus, the enhancement of catalytic activity in the lower cost alternatives is of paramount importance. We aim to prepare nickel-based mesoporous materials, which are expected to dramatically reform the electrode function with their improved catalytic activity and surface reaction density. In addition to the comparative inexpensiveness, the high abundance of nickel is appropriate for heavy industry utilization and mass production. This enhancement promotes system function and encourages their acceptance for large-scale hydrogen industries. Eventually, the breakthrough will be the trigger that sets off an energy revolution shifting society towards renewable energy.

Faculty Supervisor:

Gregory Jerkiewicz

Student:

Partner:

Université de Poitiers

Discipline:

Physics

Sector:

Education

University:

Queen's University

Program: