3D-Printed Structural Supercapacitor with MXene-N@Zn-Co Selenide Nanowire Based Woven Carbon Fiber Electrodes AITranslate
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This work describes the development of a woven carbon fiber and thermoset polyester resin based structural supercapacitor via three-dimensional (3D) printing. The specific surface area and capacitance of the electrodes were increased by hydrothermally synthesized N-doped Zn-Co selenide nanowires on the surface. The supercapacitor with N@ZnCoSe2-MXene exhibited an energy of 2.69 Wh kg–1, a power density of 43.20 W kg–1, and a Coulombic efficiency of 88.8% at 1000 mA g–1 of current density. The cyclic stability and multifunctionality of the device were satisfactory, and the capacitance retention was 83.7% at the same current density after 6000 consecutive charge–discharge cycles. The device’s high tensile strength (637.679 MPa) and modulus (36.92 GPa), with an impact energy absorption capacity of 2.22 J g–1, indicated its mechanical robustness. The device exhibits a comparable performance under various weather conditions. It retains 39.11 F g–1 of specific capacitance, 4.62 Wh kg–1 of energy, and 67.29 W kg–1 of power density at 70 °C, while it retains 7.87 F g–1 of specific capacitance, 1.78 Wh kg–1 of energy, and 20.98 W kg–1 of power density at −5 °C.
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DOI:https://doi.org/10.1021/acsenergylett.2c02505
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This work describes the development of a woven carbon fiber and thermoset polyester resin based structural supercapacitor via three-dimensional (3D) printing. The specific surface area and capacitance of the electrodes were increased by hydrothermally synthesized N-doped Zn-Co selenide nanowires on the surface. The supercapacitor with N@ZnCoSe2-MXene exhibited an energy of 2.69 Wh kg–1, a power density of 43.20 W kg–1, and a Coulombic efficiency of 88.8% at 1000 mA g–1 of current density. The cyclic stability and multifunctionality of the device were satisfactory, and the capacitance retention was 83.7% at the same current density after 6000 consecutive charge–discharge cycles. The device’s high tensile strength (637.679 MPa) and modulus (36.92 GPa), with an impact energy absorption capacity of 2.22 J g–1, indicated its mechanical robustness. The device exhibits a comparable performance under various weather conditions. It retains 39.11 F g–1 of specific capacitance, 4.62 Wh kg–1 of energy, and 67.29 W kg–1 of power density at 70 °C, while it retains 7.87 F g–1 of specific capacitance, 1.78 Wh kg–1 of energy, and 20.98 W kg–1 of power density at −5 °C.
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| GB/T 7714-2015 | [1] Biplab K. Deka, Ankita Hazarika, GuHyeok Kang, et al. ACS Energy Letters, 2023(8). DOI:10.1021/acsenergylett.2c02505. |
| MLA | [1] Biplab K. Deka, et al., ACS Energy Letters, no. 8, 2023, https://doi.org/10.1021/acsenergylett.2c02505. |
| APA | [1] Biplab K. Deka, Ankita Hazarika, GuHyeok Kang, Yun Jae Hwang, Anand Prakash Jaiswal, Dong Chan Kim, YoungBin Park, & Hyung Wook Park. (2023). ACS Energy Letters(8). https://doi.org/10.1021/acsenergylett.2c02505 |
| IEEE | [1] Biplab K. Deka, Ankita Hazarika, GuHyeok Kang, Yun Jae Hwang, Anand Prakash Jaiswal, Dong Chan Kim, YoungBin Park, and Hyung Wook Park, ACS Energy Letters, no. 8, 2023, doi: 10.1021/acsenergylett.2c02505. |
