4.6 Article

Metallic and porous Ti nanorod arrays for visible-IR light absorption and dendrite-free stable lithium-metal batteries

期刊

NANOTECHNOLOGY
卷 32, 期 21, 页码 -

出版社

IOP Publishing Ltd
DOI: 10.1088/1361-6528/abe57a

关键词

black metal; porous nanorod arrays; light absorption; Li-metal anode; dendrite free; batteries

资金

  1. Battery 500 Seedling Program of the Energy Efficiency & Renewable (EERE) Office in the US Department of Energy [DE-EE0008236]

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The metallic porous nanorod arrays of titanium serve as novel current collectors for dendrite-free and highly stable lithium-metal anodes, showing superior cycling stability and high light absorption ability, making them promising for various applications in aerospace, energy, biomedical, defense, and chemical industries.
It is still a challenging task to prepare highly porous nanorod arrays of metals formed on substrates for optical and energy storage applications. Herein, we demonstrate the design and synthesis of black color, metallic and highly porous Ti nanorod arrays as novel current collectors for dendrite-free and highly stable Li-metal anodes. The high porosity of metallic nanorod arrays provides numerous heterogeneous nucleation sites and huge contact area and large space for the accommodation of Li metal. The conductive metallic Ti nanorod arrays enhance electrode integration. Effectively, it eliminates formation Li dendrites and demonstrates superior cycling stability over 300 cycles. Additionally, the unique porous structures of the nanorod arrays can decrease the amplitude of forced vibration in narrow space leading to light absorption. Interestingly, the metal is black instead of metallic color. The black metallic nanorod arrays can absorb more than 96% of both visible and infra-red lights. This black color metallic porous nanorod arrays may find additional applications in aerospace, energy, biomedical, defence, and chemical industries.

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