Effect of different alcoholic solvents on the structural and electrochemical characteristics of NH4V4O10/carbon sphere composites for hydrogen storage application

Abstract Energy storage devices have recently made extensive use of carbon frameworks. The intention of this investigation is to look at how the carbon sphere (CS) affects NH4V4O10 (NHV) electrode materials for energy storage. Carbon spheres were synthesized via ethylenediamine-based catalyst sonoch...

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Main Author: Maryam Ghiyasiyan-Arani
Format: Article
Language:English
Published: SpringerOpen 2025-05-01
Series:Applied Water Science
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Online Access:https://doi.org/10.1007/s13201-025-02496-0
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author Maryam Ghiyasiyan-Arani
author_facet Maryam Ghiyasiyan-Arani
author_sort Maryam Ghiyasiyan-Arani
collection DOAJ
description Abstract Energy storage devices have recently made extensive use of carbon frameworks. The intention of this investigation is to look at how the carbon sphere (CS) affects NH4V4O10 (NHV) electrode materials for energy storage. Carbon spheres were synthesized via ethylenediamine-based catalyst sonochemical method with resorcinol–formaldehyde (R-F) polymer resin. The incorporation carbon spheres have the potential to enhance the low conductivity of vanadate-based materials. The solvothermal approach was employed to synthesize electrode materials which were designed to possess a three-dimensional (3D) flower-shaped structure by studying the effect of different solvents. The flower-shaped nanoribbon self-assembly structure is present in all samples. The average ribbon thickness from synthesized samples subjected to ethanol, propanol, and butanol was 16, 28, and 23 nm. In comparison to pure NHV, the surface area of the carbon sphere nanocomposites (NHV-EtOH/CS) developed to 17.843 m2g−1. The carbon sphere-based composite material has a capacitance of 295 mAhg−1 by applying I = 1 mA for 15 cycles, which is different from that of pristine NH4V4O10. Therefore, the incorporation of a three-dimensional configuration within the sphere on flower structures holds promise for improving the efficacy of energy storing in electrodes completed of ammonium vanadium-based oxides. The diffusion coefficient for NHV-EtOH was 1.12 × 10–15 cm2/s, while for NHV-EtOH/CS, it was 4.48 × 10–13 cm2/s. Thus, the NHV-EtOH/CS composites exhibited a higher diffusion factor than pure NHV.
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institution Kabale University
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spelling doaj-art-d6b7c16c6ff44f03bd1a40f0a72535d52025-08-20T04:03:06ZengSpringerOpenApplied Water Science2190-54872190-54952025-05-0115711710.1007/s13201-025-02496-0Effect of different alcoholic solvents on the structural and electrochemical characteristics of NH4V4O10/carbon sphere composites for hydrogen storage applicationMaryam Ghiyasiyan-Arani0Institute of Nanoscience and Nanotechnology, University of KashanAbstract Energy storage devices have recently made extensive use of carbon frameworks. The intention of this investigation is to look at how the carbon sphere (CS) affects NH4V4O10 (NHV) electrode materials for energy storage. Carbon spheres were synthesized via ethylenediamine-based catalyst sonochemical method with resorcinol–formaldehyde (R-F) polymer resin. The incorporation carbon spheres have the potential to enhance the low conductivity of vanadate-based materials. The solvothermal approach was employed to synthesize electrode materials which were designed to possess a three-dimensional (3D) flower-shaped structure by studying the effect of different solvents. The flower-shaped nanoribbon self-assembly structure is present in all samples. The average ribbon thickness from synthesized samples subjected to ethanol, propanol, and butanol was 16, 28, and 23 nm. In comparison to pure NHV, the surface area of the carbon sphere nanocomposites (NHV-EtOH/CS) developed to 17.843 m2g−1. The carbon sphere-based composite material has a capacitance of 295 mAhg−1 by applying I = 1 mA for 15 cycles, which is different from that of pristine NH4V4O10. Therefore, the incorporation of a three-dimensional configuration within the sphere on flower structures holds promise for improving the efficacy of energy storing in electrodes completed of ammonium vanadium-based oxides. The diffusion coefficient for NHV-EtOH was 1.12 × 10–15 cm2/s, while for NHV-EtOH/CS, it was 4.48 × 10–13 cm2/s. Thus, the NHV-EtOH/CS composites exhibited a higher diffusion factor than pure NHV.https://doi.org/10.1007/s13201-025-02496-0MorphologyCarbon sphereVanadiumElectrochemistryEnergy storage
spellingShingle Maryam Ghiyasiyan-Arani
Effect of different alcoholic solvents on the structural and electrochemical characteristics of NH4V4O10/carbon sphere composites for hydrogen storage application
Applied Water Science
Morphology
Carbon sphere
Vanadium
Electrochemistry
Energy storage
title Effect of different alcoholic solvents on the structural and electrochemical characteristics of NH4V4O10/carbon sphere composites for hydrogen storage application
title_full Effect of different alcoholic solvents on the structural and electrochemical characteristics of NH4V4O10/carbon sphere composites for hydrogen storage application
title_fullStr Effect of different alcoholic solvents on the structural and electrochemical characteristics of NH4V4O10/carbon sphere composites for hydrogen storage application
title_full_unstemmed Effect of different alcoholic solvents on the structural and electrochemical characteristics of NH4V4O10/carbon sphere composites for hydrogen storage application
title_short Effect of different alcoholic solvents on the structural and electrochemical characteristics of NH4V4O10/carbon sphere composites for hydrogen storage application
title_sort effect of different alcoholic solvents on the structural and electrochemical characteristics of nh4v4o10 carbon sphere composites for hydrogen storage application
topic Morphology
Carbon sphere
Vanadium
Electrochemistry
Energy storage
url https://doi.org/10.1007/s13201-025-02496-0
work_keys_str_mv AT maryamghiyasiyanarani effectofdifferentalcoholicsolventsonthestructuralandelectrochemicalcharacteristicsofnh4v4o10carbonspherecompositesforhydrogenstorageapplication