在管道上直接静电纺丝亚毫米连续光纤,制造快速高响应的H2S探测器

IF 9.9 2区 材料科学 Q1 Engineering
Xutao Ning , Dou Tang , Ming Zhang
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引用次数: 2

摘要

神经毒性硫化氢的快速、高响应检测对环境具有重要意义。为了提高基于超长SnO2光纤的H2S探测器的响应,本文提出了在陶瓷管上直接静电纺丝技术。采用原位静电纺丝法将亚毫米连续纤维直接沉积在陶瓷管上,并在煅烧过程中保持纤维的形态。利用该技术制备了掺cuo的SnO2光纤H2S探测器,其中10%原子掺cuo的SnO2 H2S探测器在150℃下对1 ppm H2S的响应最高达到40,而传统方法制备的H2S探测器的响应仅为3.6。此外,与传统方法制备的H2S探测器相比,原位静电纺丝H2S探测器具有更快的响应和恢复速度。基于原位静电纺丝的H2S探测器的高、快响应可归因于连续的纤维结构和CuO修饰。该原位静电纺丝技术可为开发其他快速、高响应的气体探测器和生物探测器提供新的思路。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Directly electrospinning submillimeter continuous fibers on tubes to fabricate H2S detectors with fast and high response

The fast and high response detection of neurotoxic H2S is of great importance for the environment. In this paper, directly electrospinning technology on the ceramic tube is developed to improve the response of H2S detector based on superlong SnO2 fibers. The submillimeter continuous fibers are deposited directly on ceramic tubes by in-situ electrospinning method and can keep morphology of fibers during calcination. By employing this technology, CuO-doped SnO2 fiber H2S detectors are fabricated, and 10% atom CuO-doped SnO2 H2S detector shows the highest response of 40 toward 1 ​ppm ​H2S at 150 ​°C while the response is only 3.6 for the H2S detector prepared in traditional route. In addition, the in-situ electrospinning H2S detectors show faster response and recovery compared to the H2S detectors fabricated by the conventional way. The high and fast response of H2S detectors based on in-situ electrospinning can be ascribed to the continuous fiber structure and CuO modification. The present in-situ electrospinning technology may provide a new strategy for the development of other gas-detectors and bio-detectors with fast and high response.

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来源期刊
Nano Materials Science
Nano Materials Science Engineering-Mechanics of Materials
CiteScore
20.90
自引率
3.00%
发文量
294
审稿时长
9 weeks
期刊介绍: Nano Materials Science (NMS) is an international and interdisciplinary, open access, scholarly journal. NMS publishes peer-reviewed original articles and reviews on nanoscale material science and nanometer devices, with topics encompassing preparation and processing; high-throughput characterization; material performance evaluation and application of material characteristics such as the microstructure and properties of one-dimensional, two-dimensional, and three-dimensional nanostructured and nanofunctional materials; design, preparation, and processing techniques; and performance evaluation technology and nanometer device applications.
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