Metal oxide composites are enabling materials in a variety of energy conversion systems such as solid oxide fuel cells, solar cells, batteries, light emitting diodes, photocatalysis and ionic transport membranes. The performance of metal oxides is governed by their morphology, crystal structure, and electron, ion, and defect transport properties.
In this presentation, I will elucidate the general properties of metal oxide materials for emerging technology applications. Iron, manganese, cobalt, nickel, and copper oxide composites are model systems for many clean energy processes, and I will explore the evolution of their macro-, micro-, and nano-scale characteristics during redox conditions using atomistic computational and experimental techniques. I will then show how these findings apply to novel chemical looping technology platforms, which employ metal oxide composite particles as oxygen carriers to produce hydrogen, syngas, chemicals, and liquid fuels from various carbonaceous feedstocks. I will elaborate on key elements of particle technology science that guides the design and scale-up of these technology platforms from bench reactor tests to pilot scale plant demonstrations. I will discuss chemical looping process efficiencies and economics, and the timing and challenges associated with their commercial deployment.
Presenter(s)
Once the content has been viewed and you have attested to it, you will be able to download and print a certificate for PDH credits.
If you have already viewed this content,
please click here
to login.