Layered Na2W4O13 and its cation/anion doped analogues for the treatment of polluted water

Ravi, G.; Mamidi, Srinivas; Kurra, Sreenu; Pandiri, Manjula; Vaishnavi, Kammara; Vithal, M.

doi:10.1016/j.flatc.2018.12.005

Cited by 3 publications

(2 citation statements)

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“…Obviously, this effect appeared to outweigh the expected rise in surface recombination because of the nanomaterial’s enhanced specific surface area, resulting in an improvement of H 2 production by 2–3 times (around 20–30 mmol/h·g) (Figure c) . Under UV irradiation, layered-structure Bi 2 W 2 O 9 and Na 2 W 4 O 13 were found active for photocatalytic O 2 and H 2 generation. , Surprisingly, a novel VO 2 crystal structure with a body-centered cubic (bcc) structure along with a high optical bandgap (which was 2.7 eV) demonstrated outstanding photocatalytic activity for the generation of H 2 under UV irradiation . When architectured as nanorods, the (bcc) VO 2 phase demonstrated a high quantum efficiency (38.7%).…”

Section: Metal-based Photocatalysts For Hydrogen Productionmentioning

confidence: 98%

“…122 Under UV irradiation, layered-structure Bi 2 W 2 O 9 and Na 2 W 4 O 13 were found active for photocatalytic O 2 and H 2 generation. 123,124 Surprisingly, a novel VO 2 crystal structure with a bodycentered cubic (bcc) structure along with a high optical bandgap (which was 2.7 eV) demonstrated outstanding photocatalytic activity for the generation of H 2 under UV irradiation. 125 When architectured as nanorods, the (bcc) VO 2 phase demonstrated a high quantum efficiency (38.7%).…”

Section: ■ Introductionmentioning

confidence: 99%

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Hydrogen Production by Water Splitting with Support of Metal and Carbon-Based Photocatalysts

Hoang

Pandey

Chen

et al. 2023

ACS Sustainable Chem. Eng.

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Hydrogen energy is environmental-friendly and considered an attractive alternative to fossil fuels. Among the feasible technologies for hydrogen generation, photocatalysis-derived hydrogen from water splitting is considered to be the optimal solution for meeting long-term sustainability and increased energy demands. In this context, various photocatalytic genres are proposed, with metal and carbon-supported photocatalysts demonstrating greater comprehensiveness and potential for addressing solar-driven hydrogen production from water. Several important aspects of the aforementioned photocatalytic genres are reviewed in the present work in an effort to provide pertinent researchers with new horizons for more advanced performance. The review is initiated by introducing the primary principles in photocatalysis, as well as the prerequisites for hydrogen generation from water. The focus then moves to metal-based photocatalysts, where the important features of these materials as photocatalysts are summarized. Related limitations are also discussed, along with the proposed strategies that could potentially mitigate them. Similar systematic summaries are made of knowledge on carbon-based photocatalysts. The review concludes with a discussion of potential future research directions in light of the bottlenecks currently encountered. With the proper research and development, metal-based and carbon-based photocatalysts could produce clean hydrogen from water, thereby fueling global development without causing environmental harm.

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