An Investigation on Effect of Organic Additives for Stable Performance Vanadium – Cerium Redox Flow Batteries
Abstract In an era where renewable energy resources are pivotal yet plagued by variability, vanadium‐cerium (V‐Ce) redox flow batteries (RFBs) present a sophisticated solution to energy storage and grid stability. This study focuses into the electrochemical integration of cerium with vanadium to enh...
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Wiley-VCH
2025-02-01
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Online Access: | https://doi.org/10.1002/celc.202400551 |
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author | Viet Dung Trinh Le Thanh Nguyen Huynh Hoang Vinh Tran Nguyen Thi Tuyet Mai Dang Chinh Huynh |
author_facet | Viet Dung Trinh Le Thanh Nguyen Huynh Hoang Vinh Tran Nguyen Thi Tuyet Mai Dang Chinh Huynh |
author_sort | Viet Dung Trinh |
collection | DOAJ |
description | Abstract In an era where renewable energy resources are pivotal yet plagued by variability, vanadium‐cerium (V‐Ce) redox flow batteries (RFBs) present a sophisticated solution to energy storage and grid stability. This study focuses into the electrochemical integration of cerium with vanadium to enhance traditional redox flow batteries′ energy density and cost‐effectiveness. Through an innovative design that allows scalability and addresses the challenges of the lower energy density inherent in vanadium RFBs, V‐Ce RFBs demonstrate the potential for more compact and efficient energy storage systems. In this work, we provide the open‐source design mono cell for RFBs research. Herein, the research spotlights the electrochemical characterization of Ce‐based electrolytes, employing mixed acid electrolytes to improve solubility. For improving the electrochemical performance of the V‐Ce RFBs including the diffusion coefficients and electron transfer rates, L–Leucine and L–Lysine have been used as organic additives. Obtained results have revealed that these additives not only influence the electrochemical stability and efficiency but also significantly affect to the charge‐discharge properties of the V‐Ce RFBs, in which, the L‐leucine showing superior performance over L‐lysine. These findings propose a new way for optimizing the stability of V‐Ce RFBs for large‐scale energy storage regarding efficiency, safety, and environmental impact. |
format | Article |
id | doaj-art-99ca0f3e2c844d1f885e27298f59d781 |
institution | Kabale University |
issn | 2196-0216 |
language | English |
publishDate | 2025-02-01 |
publisher | Wiley-VCH |
record_format | Article |
series | ChemElectroChem |
spelling | doaj-art-99ca0f3e2c844d1f885e27298f59d7812025-02-03T10:00:38ZengWiley-VCHChemElectroChem2196-02162025-02-01123n/an/a10.1002/celc.202400551An Investigation on Effect of Organic Additives for Stable Performance Vanadium – Cerium Redox Flow BatteriesViet Dung Trinh0Le Thanh Nguyen Huynh1Hoang Vinh Tran2Nguyen Thi Tuyet Mai3Dang Chinh Huynh4School of Chemical Chemistry and Life Science Hanoi University of Science and Technology VietnamUniversity of Science Viet Nam National University Ho Chi Minh City Ho Chi Minh City VietnamSchool of Chemical Chemistry and Life Science Hanoi University of Science and Technology VietnamSchool of Chemical Chemistry and Life Science Hanoi University of Science and Technology VietnamSchool of Chemical Chemistry and Life Science Hanoi University of Science and Technology VietnamAbstract In an era where renewable energy resources are pivotal yet plagued by variability, vanadium‐cerium (V‐Ce) redox flow batteries (RFBs) present a sophisticated solution to energy storage and grid stability. This study focuses into the electrochemical integration of cerium with vanadium to enhance traditional redox flow batteries′ energy density and cost‐effectiveness. Through an innovative design that allows scalability and addresses the challenges of the lower energy density inherent in vanadium RFBs, V‐Ce RFBs demonstrate the potential for more compact and efficient energy storage systems. In this work, we provide the open‐source design mono cell for RFBs research. Herein, the research spotlights the electrochemical characterization of Ce‐based electrolytes, employing mixed acid electrolytes to improve solubility. For improving the electrochemical performance of the V‐Ce RFBs including the diffusion coefficients and electron transfer rates, L–Leucine and L–Lysine have been used as organic additives. Obtained results have revealed that these additives not only influence the electrochemical stability and efficiency but also significantly affect to the charge‐discharge properties of the V‐Ce RFBs, in which, the L‐leucine showing superior performance over L‐lysine. These findings propose a new way for optimizing the stability of V‐Ce RFBs for large‐scale energy storage regarding efficiency, safety, and environmental impact.https://doi.org/10.1002/celc.202400551L-leucineL–LysineV-Ce systemopen-source mono-cellVanadium-Cerium Redox Flow Batteries (V-Ce RFBs) |
spellingShingle | Viet Dung Trinh Le Thanh Nguyen Huynh Hoang Vinh Tran Nguyen Thi Tuyet Mai Dang Chinh Huynh An Investigation on Effect of Organic Additives for Stable Performance Vanadium – Cerium Redox Flow Batteries ChemElectroChem L-leucine L–Lysine V-Ce system open-source mono-cell Vanadium-Cerium Redox Flow Batteries (V-Ce RFBs) |
title | An Investigation on Effect of Organic Additives for Stable Performance Vanadium – Cerium Redox Flow Batteries |
title_full | An Investigation on Effect of Organic Additives for Stable Performance Vanadium – Cerium Redox Flow Batteries |
title_fullStr | An Investigation on Effect of Organic Additives for Stable Performance Vanadium – Cerium Redox Flow Batteries |
title_full_unstemmed | An Investigation on Effect of Organic Additives for Stable Performance Vanadium – Cerium Redox Flow Batteries |
title_short | An Investigation on Effect of Organic Additives for Stable Performance Vanadium – Cerium Redox Flow Batteries |
title_sort | investigation on effect of organic additives for stable performance vanadium cerium redox flow batteries |
topic | L-leucine L–Lysine V-Ce system open-source mono-cell Vanadium-Cerium Redox Flow Batteries (V-Ce RFBs) |
url | https://doi.org/10.1002/celc.202400551 |
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