Palladium on paper as a low-cost and flexible material for fast hydrogen sensing

View/ Open
File version
Accepted Manuscript (AM)
Author(s)
Wang, Boyi
Nara, Yasumasa
Hashishin, Takeshi
Dao, Dzung Viet
Zhu, Yong
Year published
2020
Metadata
Show full item recordAbstract
To improve the hydrogen detection performance, a flexible palladium-based hydrogen sensor was designed and fabricated on normal photocopy paper. The paper substrate offers advantages such as light weight, low cost, flexibility and unique surface texture. A conventional vacuum evaporation technique was utilized for 60 nm palladium deposition on the paper and glass substrates. The unique surface texture of the paper effectively increased the surface area to volume ratio for the sensing element, which achieved a higher gas response with faster speed than the glass-based sensor. In addition, we investigated the temperature impacts ...
View more >To improve the hydrogen detection performance, a flexible palladium-based hydrogen sensor was designed and fabricated on normal photocopy paper. The paper substrate offers advantages such as light weight, low cost, flexibility and unique surface texture. A conventional vacuum evaporation technique was utilized for 60 nm palladium deposition on the paper and glass substrates. The unique surface texture of the paper effectively increased the surface area to volume ratio for the sensing element, which achieved a higher gas response with faster speed than the glass-based sensor. In addition, we investigated the temperature impacts on sensing performance of the paper-based hydrogen sensor at room temperature and 50 °C. Furthermore, the flexibility test results of the paper-based hydrogen sensor showed that the sensing performances were impervious to mechanical bending of 5.7°.
View less >
View more >To improve the hydrogen detection performance, a flexible palladium-based hydrogen sensor was designed and fabricated on normal photocopy paper. The paper substrate offers advantages such as light weight, low cost, flexibility and unique surface texture. A conventional vacuum evaporation technique was utilized for 60 nm palladium deposition on the paper and glass substrates. The unique surface texture of the paper effectively increased the surface area to volume ratio for the sensing element, which achieved a higher gas response with faster speed than the glass-based sensor. In addition, we investigated the temperature impacts on sensing performance of the paper-based hydrogen sensor at room temperature and 50 °C. Furthermore, the flexibility test results of the paper-based hydrogen sensor showed that the sensing performances were impervious to mechanical bending of 5.7°.
View less >
Journal Title
Journal of Materials Science: Materials in Electronics
Volume
31
Issue
7
Copyright Statement
© 2020 Springer New York. This is an electronic version of an article published in Journal of Materials Science: Materials in Electronics 2020, 31 (7), pp. 5298-5304. Journal of Materials Science: Materials in Electronics is available online at: http://link.springer.com/ with the open URL of your article.
Subject
Electrical engineering
Electronics, sensors and digital hardware
Materials engineering
Science & Technology
Physical Sciences
Materials Science, Multidisciplinary