Reprint

Nanomaterials for Environmental Purification and Energy Conversion

Edited by
February 2020
264 pages
  • ISBN978-3-03921-814-1 (Paperback)
  • ISBN978-3-03921-815-8 (PDF)

This book is a reprint of the Special Issue Nanomaterials for Environmental Purification and Energy Conversion that was published in

Chemistry & Materials Science
Engineering
Summary
The Special Issue, “Nanomaterials for Environmental Purification and Energy Conversion”, describes the significant and increasing role of nanomaterials in catalysis. It is believed that the most important factor for future human development could be to use nanomaterials (nanotechnology) to solve such critical issues facing humanity such as environment, water and energy. It should be also pointed out that properties of nanomaterials differ substantially from that of bulk materials of the same composition, resulting in high reactivity. Therefore, it creates new perspectives for the catalytic processes in the broad sense. This issue was mainly dedicated as a platform for the contributions from The Symposium on Nanomaterials for Environmental Purification and Energy Conversion (SNEPEC), which was held in Sapporo, Japan in winter 2018. Accordingly, this book compiles the current state-of-the-art of research in the area of novel photocatalysts and highlights current research directions in the fields of advanced oxidation technologies, material science and nanotechnology. Written by leading experts in the field of photochemistry and chemical engineering, a collection of 17 papers, including 16 research papers and one review, covers a broad range of topics focusing on the exceptional role of catalytic nanomaterials in solving environmental and energy problems of modern societies. The majority of papers present the importance of photocatalytic nanomaterials, especially for degradation of organic pollutants and inactivation of microorganisms, but there is also a strong representation of conventional catalysis, based on nanomaterials for important processes such as catalytic hydrogen production and organic synthesis.
Format
  • Paperback
License
© 2020 by the authors; CC BY-NC-ND license
Keywords
TiOF2; NaOH-modified TiOF2; network shape; photocatalysis; RhB; chemical looping reforming of methane; yttrium promoted oxygen carrier; SBA-16; hydrogen production; conductive cotton filter; carbon nanotubes; low-cost; water purification; gravity feed; alcohols; salicylic acid; multiwalled carbon nanotubes; synthesis gas; titanium dioxide; graphene; photocatalysis; visible light; dyes; Cu nanoparticles; Cu/FTO nanocomposites; H2 evolution; visible light; transfer efficiency; chemical looping; oxygen carrier; hydrogen production; narrow pore size distribution; Fe2O3 dispersion; texture modification; photocatalytic reduction; TiO2; anatase; CO2; flue gas; adsorption; magnetic ZnO; methylene blue; photodegradation; rectorite; dimethyl carbonate; carbon dioxide; ceria nanowires; oxygen vacancy; Pt-Au; XAFS; BCLA; zinc chromite; photocatalysis activity; oxalate; humic acid; photocatalysis; CO2 reduction; anatase; polydopamine; sensitization; heterogeneous photocatalysis; TiO2/Cu2O nanotubes; anodization; nanomaterials fabrication; removal of microbiological pollutants; photocatalysis; nanocomposites; heterojunction; Cu2O; urea; polytriazine; Z-scheme; ionic liquids; ionic liquid-assisted solvothermal reaction; reaction time; titanium dioxide; heterogeneous photocatalysis; visible light; C/TiO2; photocatalysis; solar radiation; disinfection; immobilized catalyst; n/a