Electrochromic and pseudocapacitive behavior of hydrothermally grown WO3 nanostructures

•Different WO3 nanostructures were synthesized using hydrothermal method.•WO3 nanostructures were employed for electrochromic and supercapacitor application.•WO3 nanoplates showed prominent electrochromic activity.•WO3 nanoplates exhibited an aerial capacitance of 72.6 mF cm−2. We report the direct...

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Veröffentlicht in:Thin solid films 2020-09, Vol.709, p.138214, Article 138214
Hauptverfasser: Kumbhar, Vijay S., Lee, Jaewon, Choi, Yongseon, Lee, Hyeonkwon, Ryuichi, Marukawa, Nakayama, Masaharu, Lee, Wonjoo, Oh, Hyunchul, Lee, Kiyoung
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container_start_page 138214
container_title Thin solid films
container_volume 709
creator Kumbhar, Vijay S.
Lee, Jaewon
Choi, Yongseon
Lee, Hyeonkwon
Ryuichi, Marukawa
Nakayama, Masaharu
Lee, Wonjoo
Oh, Hyunchul
Lee, Kiyoung
description •Different WO3 nanostructures were synthesized using hydrothermal method.•WO3 nanostructures were employed for electrochromic and supercapacitor application.•WO3 nanoplates showed prominent electrochromic activity.•WO3 nanoplates exhibited an aerial capacitance of 72.6 mF cm−2. We report the direct synthesis of various WO3 nanostructures (nanoplates, nanobricks, and stacked nanosheets) on fluorine-doped tin oxide conducting substrates for electrochromic and pseudocapacitive energy storage applications. These nanostructures were formed by varying the pH of the hydrothermal solution, which led to monoclinic and triclinic crystal structures. Among these structures, vertically aligned WO3 nanoplates showed good electrochromic properties, with rapid and reversible response of the colored and bleached states in 0.5 M H2SO4 electrolyte. Moreover, the vertically aligned WO3 nanoplates exhibited promising energy storage behavior as a negative electrode material with a higher areal capacitance of 72.6 mF cm−2 in 0.5 M Na2SO4 electrolyte and better electrochemical performance than the nanobricks and stacked nanosheets. The two-dimensional WO3 nanoplates exhibit strong potential for use in smart windows and negative-electrode pseudocapacitors.
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We report the direct synthesis of various WO3 nanostructures (nanoplates, nanobricks, and stacked nanosheets) on fluorine-doped tin oxide conducting substrates for electrochromic and pseudocapacitive energy storage applications. These nanostructures were formed by varying the pH of the hydrothermal solution, which led to monoclinic and triclinic crystal structures. Among these structures, vertically aligned WO3 nanoplates showed good electrochromic properties, with rapid and reversible response of the colored and bleached states in 0.5 M H2SO4 electrolyte. Moreover, the vertically aligned WO3 nanoplates exhibited promising energy storage behavior as a negative electrode material with a higher areal capacitance of 72.6 mF cm−2 in 0.5 M Na2SO4 electrolyte and better electrochemical performance than the nanobricks and stacked nanosheets. 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We report the direct synthesis of various WO3 nanostructures (nanoplates, nanobricks, and stacked nanosheets) on fluorine-doped tin oxide conducting substrates for electrochromic and pseudocapacitive energy storage applications. These nanostructures were formed by varying the pH of the hydrothermal solution, which led to monoclinic and triclinic crystal structures. Among these structures, vertically aligned WO3 nanoplates showed good electrochromic properties, with rapid and reversible response of the colored and bleached states in 0.5 M H2SO4 electrolyte. Moreover, the vertically aligned WO3 nanoplates exhibited promising energy storage behavior as a negative electrode material with a higher areal capacitance of 72.6 mF cm−2 in 0.5 M Na2SO4 electrolyte and better electrochemical performance than the nanobricks and stacked nanosheets. 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We report the direct synthesis of various WO3 nanostructures (nanoplates, nanobricks, and stacked nanosheets) on fluorine-doped tin oxide conducting substrates for electrochromic and pseudocapacitive energy storage applications. These nanostructures were formed by varying the pH of the hydrothermal solution, which led to monoclinic and triclinic crystal structures. Among these structures, vertically aligned WO3 nanoplates showed good electrochromic properties, with rapid and reversible response of the colored and bleached states in 0.5 M H2SO4 electrolyte. Moreover, the vertically aligned WO3 nanoplates exhibited promising energy storage behavior as a negative electrode material with a higher areal capacitance of 72.6 mF cm−2 in 0.5 M Na2SO4 electrolyte and better electrochemical performance than the nanobricks and stacked nanosheets. 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subjects Electrochromism
Hydrothermal growth
Nanostructures
Supercapacitors
Tungsten trioxide
title Electrochromic and pseudocapacitive behavior of hydrothermally grown WO3 nanostructures
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