A Ppb-level hydrogen sensor based on activated Pd nanoparticles loaded on oxidized nickel foam

•Novel H2 sensor based on Pd nanoparticles loaded on oxidized Ni foam is fabricated.•Ppb-level H2 can be stably detected by the sensor activated by 4 % H2 treatment.•The activated mechanism of the sensor is proposed firstly and analyzed innovatively.•H2 with a large concentration range (7 ppb-2 %) c...

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Veröffentlicht in:Sensors and actuators. B, Chemical Chemical, 2021-02, Vol.329, p.129194, Article 129194
Hauptverfasser: Tian, Jiawei, Jiang, Hongchuan, Zhao, Xiaohui, Shi, Gangwei, Zhang, Jianfeng, Deng, Xinwu, Zhang, Wanli
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container_start_page 129194
container_title Sensors and actuators. B, Chemical
container_volume 329
creator Tian, Jiawei
Jiang, Hongchuan
Zhao, Xiaohui
Shi, Gangwei
Zhang, Jianfeng
Deng, Xinwu
Zhang, Wanli
description •Novel H2 sensor based on Pd nanoparticles loaded on oxidized Ni foam is fabricated.•Ppb-level H2 can be stably detected by the sensor activated by 4 % H2 treatment.•The activated mechanism of the sensor is proposed firstly and analyzed innovatively.•H2 with a large concentration range (7 ppb-2 %) can be detected by the sensor at 30 °C.•It has high cycling stability, humidity stability and selectivity, and is suitable for RT. A novel hydrogen sensor with ppb-level detection limit was fabricated in this work. The oxidized Ni foam was chosen as the substrate, whose 3D porous structure contributed to gas circulation, and insulating NiO nanowrinkles provided a large specific surface area. Pd nanoparticles as hydrogen sensing material were loaded on it by magnetron sputtering. Unprecedentedly, the incompletely reversible lattice distortion caused by the generation of Pd-H β-phase was applied to activate the hydrogen sensor, which significantly improved the response to low concentration H2. The activation mechanism was proposed firstly and analyzed innovatively. Therefore, hydrogen with a large concentration range (7 ppb ∼ 2 %) can be detected by the prepared sensor, and the response changes regularly as H2 concentration changes. The optimum temperature of the sensor is 30 °C, and it exhibits high cycling stability, humidity stability and gas selectivity. This work provides a brand new strategy for the development of low detection limit hydrogen sensors.
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A novel hydrogen sensor with ppb-level detection limit was fabricated in this work. The oxidized Ni foam was chosen as the substrate, whose 3D porous structure contributed to gas circulation, and insulating NiO nanowrinkles provided a large specific surface area. Pd nanoparticles as hydrogen sensing material were loaded on it by magnetron sputtering. Unprecedentedly, the incompletely reversible lattice distortion caused by the generation of Pd-H β-phase was applied to activate the hydrogen sensor, which significantly improved the response to low concentration H2. The activation mechanism was proposed firstly and analyzed innovatively. Therefore, hydrogen with a large concentration range (7 ppb ∼ 2 %) can be detected by the prepared sensor, and the response changes regularly as H2 concentration changes. The optimum temperature of the sensor is 30 °C, and it exhibits high cycling stability, humidity stability and gas selectivity. This work provides a brand new strategy for the development of low detection limit hydrogen sensors.</description><identifier>ISSN: 0925-4005</identifier><identifier>EISSN: 1873-3077</identifier><identifier>DOI: 10.1016/j.snb.2020.129194</identifier><language>eng</language><publisher>Lausanne: Elsevier B.V</publisher><subject>Beta phase ; Chemical sensors ; Hydrogen ; Hydrogen sensor ; Low detection limit ; Magnetron sputtering ; Metal foams ; Nanoparticles ; Ni foam ; Nickel ; Palladium ; Pd nanoparticle ; Selectivity ; Sensors ; Stability ; Substrates</subject><ispartof>Sensors and actuators. B, Chemical, 2021-02, Vol.329, p.129194, Article 129194</ispartof><rights>2020 Elsevier B.V.</rights><rights>Copyright Elsevier Science Ltd. 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B, Chemical</title><description>•Novel H2 sensor based on Pd nanoparticles loaded on oxidized Ni foam is fabricated.•Ppb-level H2 can be stably detected by the sensor activated by 4 % H2 treatment.•The activated mechanism of the sensor is proposed firstly and analyzed innovatively.•H2 with a large concentration range (7 ppb-2 %) can be detected by the sensor at 30 °C.•It has high cycling stability, humidity stability and selectivity, and is suitable for RT. A novel hydrogen sensor with ppb-level detection limit was fabricated in this work. The oxidized Ni foam was chosen as the substrate, whose 3D porous structure contributed to gas circulation, and insulating NiO nanowrinkles provided a large specific surface area. Pd nanoparticles as hydrogen sensing material were loaded on it by magnetron sputtering. Unprecedentedly, the incompletely reversible lattice distortion caused by the generation of Pd-H β-phase was applied to activate the hydrogen sensor, which significantly improved the response to low concentration H2. The activation mechanism was proposed firstly and analyzed innovatively. Therefore, hydrogen with a large concentration range (7 ppb ∼ 2 %) can be detected by the prepared sensor, and the response changes regularly as H2 concentration changes. The optimum temperature of the sensor is 30 °C, and it exhibits high cycling stability, humidity stability and gas selectivity. 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subjects Beta phase
Chemical sensors
Hydrogen
Hydrogen sensor
Low detection limit
Magnetron sputtering
Metal foams
Nanoparticles
Ni foam
Nickel
Palladium
Pd nanoparticle
Selectivity
Sensors
Stability
Substrates
title A Ppb-level hydrogen sensor based on activated Pd nanoparticles loaded on oxidized nickel foam
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