| Literature DB >> 30576114 |
Stephanie K Loeb1,2, Pedro J J Alvarez1,3, Jonathon A Brame4, Ezra L Cates5, Wonyong Choi6, John Crittenden7, Dionysios D Dionysiou8, Qilin Li1,3, Gianluca Li-Puma9, Xie Quan10, David L Sedlak11, T David Waite12, Paul Westerhoff1,13, Jae-Hong Kim1,2.
Abstract
Advanced oxidation processes via semiconductor photocatalysis for water treatment have been the subject of extensive research over the past three decades, producing many scientific reports focused on elucidating mechanisms and enhancing kinetics for the treatment of contaminants in water. Many of these reports imply that the ultimate goal of the research is to apply photocatalysis in municipal water treatment operations. However, this ignores immense technology transfer problems, perpetuating a widening gap between academic advocation and industrial application. In this Feature, we undertake a critical examination of the trajectory of photocatalytic water treatment research, assessing the viability of proposed applications and identifying those with the most promising future. Several strategies are proposed for scientists and engineers who aim to support research efforts to bring industrially relevant photocatalytic water treatment processes to fruition. Although the reassessed potential may not live up to initial academic hype, an unfavorable assessment in some areas does not preclude the transfer of photocatalysis for water treatment to other niche applications as the technology retains substantive and unique benefits.Entities:
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Year: 2018 PMID: 30576114 DOI: 10.1021/acs.est.8b05041
Source DB: PubMed Journal: Environ Sci Technol ISSN: 0013-936X Impact factor: 9.028