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Integrated waterproofing evaluation method for longitudinal joints of shield tunnel subjected to extreme surcharge: Numerical analysis and experimental validation

发表时间:2021-04-23
点击次数:
论文类型:
期刊论文
第一作者:
Ji, Kemeng
通讯作者:
Arandiyan, Hamidreza,Liu, Pan,Zhang, Ling,Han, Jiuhui,Xue, Yacong,侯军刚,Dai, Hongxing
发表时间:
2021-01-31
发表刊物:
NANO ENERGY
文献类型:
J
卷号:
27
页面范围:
515-525
ISSN号:
2211-2855
关键字:
Three-dimensionally ordered macropore; Bismuth vanadate; Supported heterojunction photocatalyst; Phenol degradation; Water splitting
摘要:
Through effectively harvesting and converting solar energy, photocatalysis has become one of the most important technologies in wastewater decontamination and hydrogen production. Currently, extensive studies are being conducted to develop photocatalysts with advanced features, such as visible-light response, heterogeneous nanoarchitecture, plasmonic effect, and excellent optical behavior. Finding efficient utilization technique to improve photocatalytic performance motivates researchers all over the world. Herein, we demonstrate the design of a visible-light-driven Pd/Fe2O3/BiVO4 hybrid with 3D ordered macro-/mesoporous (3DOM) nanoarchitecture for efficiently photocatalytic organic degradation and photoelectrochemical (PEC) water splitting. The hybrid photocatalyst exhibited two-tier bandgap energies and possessed enhanced ability to harvest visible light and separate photo-induced carriers. It is shown that, over the Pd/Fe2O3/3DOM-BiVO4 photocatalyst, not only the refractory phenol could be rapidly degraded into CO2 and H2O, but also the photoconversion efficiency was greatly improved in water splitting to generate H-2. The excellent photocatalytic performance of Pd/Fe2O3/BiVO4 was associated with the construction of low-crystalline plasmonic heterointerfaces through the 3DOM framework. The produced synergistic action enabled the hybrid material to absorb the sunlight adequately and transfer the photoexcited carriers expediently to drive phenol degradation or hydrogen evolution from water. (C) 2016 Elsevier Ltd. All rights reserved.
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