利用电沉积的钯纳米线包裹在阳极氧化铝纳米孔中增强氢传感

M. Kocanda, L. Potluri, M. Haji-Sheikh, D. Ballantine, A. Bose
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引用次数: 2

摘要

钯纳米线传感器仅限于检测小浓度的氢分子(H2)。当过量的氢吸收时,隧道电流将纳米线熔合,造成短路,导致永久故障。在这里,我们证明了电沉积的钯纳米线包裹在单步阳极氧化铝纳米孔中,可靠地检测氢浓度大于4%,并且不会遭受传统自支撑纳米线的机械和电气故障。100%浓度的分子氢多次循环和长期暴露于高浓度氢气中不会导致传感器永久短路故障。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Enhanced hydrogen sensing employing electrodeposited palladium nanowires enclosed in anodized aluminum oxide nanopores
Palladium nanowire sensors have been limited to detecting small concentrations of molecular hydrogen (H2). Upon excessive hydrogen uptake, tunneling currents fuse the nanowires creating a short circuit causing permanent failure. Here we demonstrate that electrodeposited palladium nanowires enclosed within single-step anodized aluminum oxide nanopores reliably detect hydrogen concentrations greater than four percent and do not suffer the mechanical and electrical failures of conventional self-supporting nanowires. Multiple cycling of molecular hydrogen at 100% concentration and long-term exposure to high concentration of hydrogen does not contribute to permanent short-circuit failure of the sensor.
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