Three dimensional rosette-rod TiO2/Bi2S3 heterojunction for enhanced photoelectrochemical water splitting

•Hierarchal Rosette-rod TiO2) heterojunction with Bi2S3 was created by combining two-step hydrothermal method and solvothermal approach.•Photoelectrochemical performance and morphology of the synthesized photoanode were considerably affected by the presence of seed layer and the duration of solvothe...

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Veröffentlicht in:Journal of alloys and compounds 2021-07, Vol.868, p.159133, Article 159133
Hauptverfasser: Ahmad, Abrar, Tezcan, Fatih, Yerlikaya, Gurbet, Zia-ur-Rehman, Paksoy, Halime, Kardaş, Gülfeza
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container_start_page 159133
container_title Journal of alloys and compounds
container_volume 868
creator Ahmad, Abrar
Tezcan, Fatih
Yerlikaya, Gurbet
Zia-ur-Rehman
Paksoy, Halime
Kardaş, Gülfeza
description •Hierarchal Rosette-rod TiO2) heterojunction with Bi2S3 was created by combining two-step hydrothermal method and solvothermal approach.•Photoelectrochemical performance and morphology of the synthesized photoanode were considerably affected by the presence of seed layer and the duration of solvothermal step.•The synthesized TiO2 and Bi2S3 heterojunction based photoanode shows 10 time’s higher current as compared to pristine TiO2 photoanode. In this work, we have fabricated a three-dimensional double layered rosette-rod TiO2 heterojunction with Bi2S3 using two-step hydrothermal method and solvothermal route. A seed layer approach is also used to assist uniform distribution of Bi2S3 and to form a perfect heterojunction between TiO2 and Bi2S3. Morphologically studies reveal that the double layered rosette-rod TiO2 (RT) architecture consists of two main parts one dimensional TiO2 nanorod arrays present at the bottom for direct transfer of photo induced electron and hole pairs, while the upper three-dimensional nano rosette consisting of small TiO2 nanorods as building units to enhance the surface area and light harvesting efficiency. Morphology of Bi2S3 also found to be affected relatively by the growth duration and the presence of seed layer. Photoelectrochemical performance at 1.23 V RHE bias-potential under 100 mW cm−2 solar light illumination shows that synthesized RT_Bi2S3 photoanode demonstrates the highest photocurrent density of 3.98 mA cm−2, which is practically 10 times higher than RT (0.39 mA cm−2) and 5.5 times higher than RT_ Bi2S3 photoanode without the seed layer (0.74 mA cm−2). It is remarkable to mention that photocurrent density of RT_ Bi2S3 photoanode to the best of our knowledge is superior to all the TiO2 and Bi2S3 based photoanodes used in photoelectrochemical cells reported in the literature.
doi_str_mv 10.1016/j.jallcom.2021.159133
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In this work, we have fabricated a three-dimensional double layered rosette-rod TiO2 heterojunction with Bi2S3 using two-step hydrothermal method and solvothermal route. A seed layer approach is also used to assist uniform distribution of Bi2S3 and to form a perfect heterojunction between TiO2 and Bi2S3. Morphologically studies reveal that the double layered rosette-rod TiO2 (RT) architecture consists of two main parts one dimensional TiO2 nanorod arrays present at the bottom for direct transfer of photo induced electron and hole pairs, while the upper three-dimensional nano rosette consisting of small TiO2 nanorods as building units to enhance the surface area and light harvesting efficiency. Morphology of Bi2S3 also found to be affected relatively by the growth duration and the presence of seed layer. Photoelectrochemical performance at 1.23 V RHE bias-potential under 100 mW cm−2 solar light illumination shows that synthesized RT_Bi2S3 photoanode demonstrates the highest photocurrent density of 3.98 mA cm−2, which is practically 10 times higher than RT (0.39 mA cm−2) and 5.5 times higher than RT_ Bi2S3 photoanode without the seed layer (0.74 mA cm−2). 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subjects Bi2S3
Bismuth sulfides
Copper
Density
Heterojunctions
Hydrothermal
Light
Morphology
Nanorods
Photoelectric effect
Photoelectric emission
Photoelectrochemical devices
Rosette-rod TiO2
Seed layer
Solvothermal
Titanium dioxide
Water splitting
title Three dimensional rosette-rod TiO2/Bi2S3 heterojunction for enhanced photoelectrochemical water splitting
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