4.1 Article

Electrocatalysis and photoelectrochemistry based on functional nanomaterials

Journal

CANADIAN JOURNAL OF CHEMISTRY
Volume 92, Issue 7, Pages 581-597

Publisher

CANADIAN SCIENCE PUBLISHING, NRC RESEARCH PRESS
DOI: 10.1139/cjc-2014-0147

Keywords

electrocatalysis; photocatalysis; nanomaterials; platinum; palladium; titanium dioxide

Funding

  1. Canadian Catalysis Foundation
  2. Catalysis Division of the Chemical Institute of Canada
  3. Lakehead University
  4. Natural Sciences and Engineering Research Council of Canada
  5. Canada Foundation for Innovation
  6. Provincial Government of Ontario
  7. Canada Research Chairs Program
  8. FedNor
  9. Northern Ontario Heritage Fund
  10. Center for Research and Innovation in the Bio-Economy
  11. Japan Society for the Promotion of Science fellowship
  12. Premier's Research Excellence Award

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Catalysis plays a key role in chemical production, energy processing, air purification, water treatment, food processing, and the life sciences. Nanostructured materials with high surface areas and some unique properties have received widespread interest in electrocatalysis and photocatalysis. Recently, the author's research team has designed and studied a variety of novel functional nanomaterials. This review article is derived from the author's 2013 Canadian Catalysis Lectureship Award Lecture and focuses primarily on the electrocatalytic activities of platinum-and palladium-based nanomaterials and the development of TiO2-based nanostructured photocatalysts. Palladium possesses several exceptional properties that may enable promising applications in hydrogen detection, purification, and storage. The significant roles of palladium-based nanomaterials in facilitating the growth of a hydrogen economy are addressed. As platinum-based catalysts are vital to the development of fuel cells and sensors, the design of high-performance platinum-based electrocatalysts is highlighted. Additionally, TiO2 is considered to be one of the most promising photocatalysts due to its nontoxicity, high stability, and cost effectiveness. The modification of TiO2 nanomaterials to achieve visible light response is discussed as well. It is anticipated that the development of advanced functional nanostructured catalysts will further improve the efficiency and reduce the cost of electrochemical and photochemical processes, making them more attractive in addressing the pressing global energy and environmental issues.

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