Optimizing Hydrophilicity in NiO/Graphene Composites Via Stearic Acid Treatment for Humidity-to-Energy Applications

Converting water molecules into energy, this research field has garnered significant attention, yet it is still in its early stages of exploration.The main challenge in humidity-to-energy development is the effectiveness of material in water absorption.This article presents a study on surface modification through stearic acid treatment aimed at optimizing the hydrophilicity of hygroscopic material, thereby improving humidity energy harvesting performance.Here, we successfully synthesized a novel NiO/Graphene on cellulose substrate (NiO/Gr/cellulose) as the hygroscopic material using the sonicated solution immersion method.A humidity-to-energy device was fabricated by utilizing the NiO/Gr/cellulose, yielding an output voltage of 2.26 mV, a current density of 0.18 nA/cm, and a power output of 0.51 pW at 75% relative humidity.This research highlights the potential of NiO/Gr/cellulose with sufficient hydrophilicity as a promising hygroscopic material, offering significant future prospects in humidity energy harvesting technology.

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Publication Details

Journal
International Journal of Integrated Engineering
Published
2024-11-27
DOI
https://doi.org/10.30880/ijie.2024.16.07.024
Primary Topic
Supercapacitor Materials and Fabrication
Type
article
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article

Optimizing Hydrophilicity in NiO/Graphene Composites Via Stearic Acid Treatment for Humidity-to-Energy Applications

Mohd Hanapiah Abdullah, M. F. Malek, Dayana Kamaruzaman, Nurul Syafiqah Mohamed Mustakim et al.
International Journal of Integrated Engineering
Supercapacitor Materials and Fabrication
article

Optimizing Hydrophilicity in NiO/Graphene Composites Via Stearic Acid Treatment for Humidity-to-Energy Applications

Mohd Hanapiah Abdullah, M. F. Malek, Dayana Kamaruzaman, Nurul Syafiqah Mohamed Mustakim, Mohd Khairul Ahmad, Mohamad Hafiz Mamat, N. Vasimalai, Norfarariyanti Parimon, A Shamsul Rahimi A Subki, Suriani Abu Bakar
article en

Abstract

Converting water molecules into energy, this research field has garnered significant attention, yet it is still in its early stages of exploration.The main challenge in humidity-to-energy development is the effectiveness of material in water absorption.This article presents a study on surface modification through stearic acid treatment aimed at optimizing the hydrophilicity of hygroscopic material, thereby improving humidity energy harvesting performance.Here, we successfully synthesized a novel NiO/Graphene on cellulose substrate (NiO/Gr/cellulose) as the hygroscopic material using the sonicated solution immersion method.A humidity-to-energy device was fabricated by utilizing the NiO/Gr/cellulose, yielding an output voltage of 2.26 mV, a current density of 0.18 nA/cm, and a power output of 0.51 pW at 75% relative humidity.This research highlights the potential of NiO/Gr/cellulose with sufficient hydrophilicity as a promising hygroscopic material, offering significant future prospects in humidity energy harvesting technology.

International Journal of Integrated EngineeringVol. 16(7)
Affordable and clean energy
Openalex Percentile: Top 85%
Supercapacitor Materials and Fabrication
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Optimizing Hydrophilicity in NiO/Graphene Composites Via Stearic Acid Treatment for Humidity-to-Energy Applications — Mohd Hanapiah Abdullah, M. F. Malek, et al. · International Journal of Integrated Engineering (2024) | TGRS Research Map | TGRS