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Three-dimensional bicontinuous nanoporous materials by vapor phase dealloying.


ABSTRACT: Three-dimensional bicontinuous open (3DBO) nanoporosity has been recognized as an important nanoarchitecture for catalysis, sensing, and energy storage. Dealloying, i.e., selectively removing a component from an alloy, is an efficient way to fabricate nanoporous materials. However, current electrochemical and liquid-metal dealloying methods can only be applied to a limited number of alloys and usually require an etching process with chemical waste. Here, we report a green and universal approach, vapor-phase dealloying, to fabricate nanoporous materials by utilizing the vapor pressure difference between constituent elements in an alloy to selectively remove a component with a high partial vapor pressure for 3DBO nanoporosity. We demonstrate that extensive elements, regardless of chemical activity, can be fabricated as nanoporous materials with tunable pore sizes. Importantly, the evaporated components can be fully recovered. This environmentally friendly dealloying method paves a way to fabricate 3DBO nanoporous materials for a wide range of structural and functional applications.

SUBMITTER: Lu Z 

PROVIDER: S-EPMC5773601 | biostudies-literature | 2018 Jan

REPOSITORIES: biostudies-literature

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Three-dimensional bicontinuous nanoporous materials by vapor phase dealloying.

Lu Zhen Z   Li Cheng C   Han Jiuhui J   Zhang Fan F   Liu Pan P   Wang Hao H   Wang Zhili Z   Cheng Chun C   Chen Linghan L   Hirata Akihiko A   Fujita Takeshi T   Erlebacher Jonah J   Chen Mingwei M  

Nature communications 20180118 1


Three-dimensional bicontinuous open (3DBO) nanoporosity has been recognized as an important nanoarchitecture for catalysis, sensing, and energy storage. Dealloying, i.e., selectively removing a component from an alloy, is an efficient way to fabricate nanoporous materials. However, current electrochemical and liquid-metal dealloying methods can only be applied to a limited number of alloys and usually require an etching process with chemical waste. Here, we report a green and universal approach,  ...[more]

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