Vertical 1T‐TaS2 Synthesis on Nanoporous Gold for High‐Performance Electrocatalytic Applications

2D metallic TaS2 is acting as an ideal platform for exploring fundamental physical issues (superconductivity, charge‐density wave, etc.) and for engineering novel applications in energy‐related fields. The batch synthesis of high‐quality TaS2 nanosheets with a specific phase is crucial for such issu...

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Published inAdvanced materials (Weinheim) Vol. 30; no. 15; pp. e1705916 - n/a
Main Authors Huan, Yahuan, Shi, Jianping, Zou, Xiaolong, Gong, Yue, Zhang, Zhepeng, Li, Minghua, Zhao, Liyun, Xu, Runzhang, Jiang, Shaolong, Zhou, Xiebo, Hong, Min, Xie, Chunyu, Li, He, Lang, Xingyou, Zhang, Qing, Gu, Lin, Yan, Xiaoqin, Zhang, Yanfeng
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LanguageEnglish
Published Weinheim Wiley Subscription Services, Inc 12.04.2018
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Abstract 2D metallic TaS2 is acting as an ideal platform for exploring fundamental physical issues (superconductivity, charge‐density wave, etc.) and for engineering novel applications in energy‐related fields. The batch synthesis of high‐quality TaS2 nanosheets with a specific phase is crucial for such issues. Herein, the successful synthesis of novel vertically oriented 1T‐TaS2 nanosheets on nanoporous gold substrates is reported, via a facile chemical vapor deposition route. By virtue of the abundant edge sites and excellent electrical transport property, such vertical 1T‐TaS2 is employed as high‐efficiency electrocatalysts in the hydrogen evolution reaction, featured with rather low Tafel slopes ≈67–82 mV dec−1 and an ultrahigh exchange current density ≈67.61 µA cm−2. The influence of phase states of 1T‐ and 2H‐TaS2 on the catalytic activity is also discussed with the combination of density functional theory calculations. This work hereby provides fundamental insights into the controllable syntheses and electrocatalytic applications of vertical 1T‐TaS2 nanosheets achieved through the substrate engineering. Vertically oriented 1T‐TaS2 nanosheets are first synthesized on nanoporous gold (NPG) substrates, via the chemical vapor deposition route. By virtue of the abundant edge sites and excellent electrical transport property, such vertical 1T‐TaS2/NPG are employed as high‐efficiency electrocatalysts in the hydrogen evolution reaction. The influence of the phase states of TaS2 on the catalytic activity is also explored according to theoretical calculations.
AbstractList 2D metallic TaS2 is acting as an ideal platform for exploring fundamental physical issues (superconductivity, charge‐density wave, etc.) and for engineering novel applications in energy‐related fields. The batch synthesis of high‐quality TaS2 nanosheets with a specific phase is crucial for such issues. Herein, the successful synthesis of novel vertically oriented 1T‐TaS2 nanosheets on nanoporous gold substrates is reported, via a facile chemical vapor deposition route. By virtue of the abundant edge sites and excellent electrical transport property, such vertical 1T‐TaS2 is employed as high‐efficiency electrocatalysts in the hydrogen evolution reaction, featured with rather low Tafel slopes ≈67–82 mV dec−1 and an ultrahigh exchange current density ≈67.61 µA cm−2. The influence of phase states of 1T‐ and 2H‐TaS2 on the catalytic activity is also discussed with the combination of density functional theory calculations. This work hereby provides fundamental insights into the controllable syntheses and electrocatalytic applications of vertical 1T‐TaS2 nanosheets achieved through the substrate engineering.
2D metallic TaS2 is acting as an ideal platform for exploring fundamental physical issues (superconductivity, charge‐density wave, etc.) and for engineering novel applications in energy‐related fields. The batch synthesis of high‐quality TaS2 nanosheets with a specific phase is crucial for such issues. Herein, the successful synthesis of novel vertically oriented 1T‐TaS2 nanosheets on nanoporous gold substrates is reported, via a facile chemical vapor deposition route. By virtue of the abundant edge sites and excellent electrical transport property, such vertical 1T‐TaS2 is employed as high‐efficiency electrocatalysts in the hydrogen evolution reaction, featured with rather low Tafel slopes ≈67–82 mV dec−1 and an ultrahigh exchange current density ≈67.61 µA cm−2. The influence of phase states of 1T‐ and 2H‐TaS2 on the catalytic activity is also discussed with the combination of density functional theory calculations. This work hereby provides fundamental insights into the controllable syntheses and electrocatalytic applications of vertical 1T‐TaS2 nanosheets achieved through the substrate engineering. Vertically oriented 1T‐TaS2 nanosheets are first synthesized on nanoporous gold (NPG) substrates, via the chemical vapor deposition route. By virtue of the abundant edge sites and excellent electrical transport property, such vertical 1T‐TaS2/NPG are employed as high‐efficiency electrocatalysts in the hydrogen evolution reaction. The influence of the phase states of TaS2 on the catalytic activity is also explored according to theoretical calculations.
Author Jiang, Shaolong
Yan, Xiaoqin
Li, He
Shi, Jianping
Xu, Runzhang
Huan, Yahuan
Zhang, Zhepeng
Lang, Xingyou
Zhou, Xiebo
Hong, Min
Gu, Lin
Zhang, Yanfeng
Li, Minghua
Zou, Xiaolong
Gong, Yue
Zhang, Qing
Zhao, Liyun
Xie, Chunyu
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Snippet 2D metallic TaS2 is acting as an ideal platform for exploring fundamental physical issues (superconductivity, charge‐density wave, etc.) and for engineering...
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SubjectTerms Catalysis
Catalytic activity
Charge density
Chemical vapor deposition
Density functional theory
Electrocatalysts
Gold
hydrogen evolution reaction
Hydrogen evolution reactions
Materials science
nanoporous gold
Nanostructure
phase states
Substrates
Superconductivity
Synthesis
Tafel slopes
vertical tantalum disulfide
Title Vertical 1T‐TaS2 Synthesis on Nanoporous Gold for High‐Performance Electrocatalytic Applications
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fadma.201705916
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Volume 30
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