Conversion of N-doped biochar from carotenoid-extracted Tetraselmis suecica and its application to produce supercapacitors

Microalgae are one of the promising feedstocks for biorefinery, contributing significantly to net-zero emissions through carbon capture and utilization. However, the disposal of microalgal byproducts from the manufacturing process causes additional environmental pollution, thus, a new application st...

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Veröffentlicht in:Journal of environmental sciences (China) 2025-05, Vol.151, p.410-423
Hauptverfasser: Lee, Se Hun, Lee, Kang Hyun, Lee, Sang-hwa, Lee, Soo Kweon, Jeon, Ok Sung, Jeon, Young Pyo, Hong, Dongpyo, Yoo, Young Joon, Park, Sang Yoon, Yoo, Hah Young
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container_issue
container_start_page 410
container_title Journal of environmental sciences (China)
container_volume 151
creator Lee, Se Hun
Lee, Kang Hyun
Lee, Sang-hwa
Lee, Soo Kweon
Jeon, Ok Sung
Jeon, Young Pyo
Hong, Dongpyo
Yoo, Young Joon
Park, Sang Yoon
Yoo, Hah Young
description Microalgae are one of the promising feedstocks for biorefinery, contributing significantly to net-zero emissions through carbon capture and utilization. However, the disposal of microalgal byproducts from the manufacturing process causes additional environmental pollution, thus, a new application strategy is required. In this study, the Tetraselmis suecica byproduct from the carotenoid extraction process was carbonized and converted into biochar. The converted biochar was proved to be nitrogen-doped biochar (NDB), up to 4.69%, with a specific surface area of 206.59 m2/g and was used as an electrode for a supercapacitor. The NDB electrode (NDB-E) in half-cell showed a maximum specific capacitance of 191 F/g. In a full-cell test, the NDB-E exhibited a high energy density of 7.396 Wh/kg and a high-power density of 18,100 W/kg, and maintained specific capacity of 95.5% after charge and discharge of 10,000 cycles. In conclusion, our study demonstrated that the carotenoid-extracted microalgal byproducts are a useful resource for the supercapacitor production. This approach is the first to convert T. suecica into active materials for supercapacitors.
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subjects Carbonization
Carotenoids - chemistry
Charcoal - chemistry
Chlorophyta
Electric Capacitance
Electrodes
Microalgae
N-doped biochar
Nitrogen - chemistry
Supercapacitor
Tetraselmis suecica
title Conversion of N-doped biochar from carotenoid-extracted Tetraselmis suecica and its application to produce supercapacitors
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