Innovative ferrite sensors: Advancing non-enzymatic glucose detection

• Ferrite-based nanomaterials have surfaced as capable candidates for glucose sensing owing to their distinctive magnetic, electrical, and structural properties. • This review article offers a wide-ranging overview of current studies in the expansion and use of ferrite-based glucose sensors. • In this review, the synthesis methods and characterization techniques for the various ferrite nanomaterials, including spinel ferrite, highlighting their enhanced sensitivity, stability, and selectivity in glucose detection has been discussed thoroughly. • The mechanism of glucose sensing is explained, focusing on the role of ferrite nanoparticles in facilitating electron transfer and catalytic activity. • This review also addresses the obstacles and future scopes in the field, emphasizing the potential for ferrite-based materials to aid to the enhancement of low-cost, and non-invasive glucose monitoring devices with high efficiency. Ferrite-based nanomaterials have surfaced as capable candidates for glucose sensing owing to their distinctive magnetic, electrical, and structural properties. This review article offers a wide-ranging overview of current studies in the expansion and use of ferrite-based glucose sensors. In this review, the synthesis methods and characterization techniques for the various ferrite nanomaterials, including spinel ferrite, highlighting their enhanced sensitivity, stability, and selectivity in glucose detection has been discussed thoroughly. The mechanism of glucose sensing is explained, focusing on the role of ferrite nanoparticles in facilitating electron transfer and catalytic activity. Additionally, the integration of ferrite-based sensors with the various transducing elements such as electrochemical, optical, and magnetic systems is examined. Alongside, obstacles and future scopes in this field has been explained, emphasizing the potential for ferrite-based materials to aid to the enhancement of low-cost, and non-invasive glucose monitoring devices with high efficiency. Through this critical analysis, we aim to provide insights into the ongoing research and inspire future innovations in ferrite-based glucose sensing technologies.

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Publication Details

Journal
Sensors and Actuators Reports
Published
2025-02-05
DOI
https://doi.org/10.1016/j.snr.2025.100295
Citations
4
Primary Topic
Electrochemical sensors and biosensors
Type
article
Field-Weighted Citation Impact
2.92
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Innovative ferrite sensors: Advancing non-enzymatic glucose detection

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Sensors and Actuators Reports
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article

Innovative ferrite sensors: Advancing non-enzymatic glucose detection

M. Ramya, Alaa M. Younis, Abhishek Kandwal, Rohit Jasrotia, V. P. Singh, Virat Khanna, Abdullah H. Alluhayb, Chan Choon Kit, Suman Suman, Basant Kumar Singh, Kanika Raj
article en
4 citations

Abstract

• Ferrite-based nanomaterials have surfaced as capable candidates for glucose sensing owing to their distinctive magnetic, electrical, and structural properties. • This review article offers a wide-ranging overview of current studies in the expansion and use of ferrite-based glucose sensors. • In this review, the synthesis methods and characterization techniques for the various ferrite nanomaterials, including spinel ferrite, highlighting their enhanced sensitivity, stability, and selectivity in glucose detection has been discussed thoroughly. • The mechanism of glucose sensing is explained, focusing on the role of ferrite nanoparticles in facilitating electron transfer and catalytic activity. • This review also addresses the obstacles and future scopes in the field, emphasizing the potential for ferrite-based materials to aid to the enhancement of low-cost, and non-invasive glucose monitoring devices with high efficiency. Ferrite-based nanomaterials have surfaced as capable candidates for glucose sensing owing to their distinctive magnetic, electrical, and structural properties. This review article offers a wide-ranging overview of current studies in the expansion and use of ferrite-based glucose sensors. In this review, the synthesis methods and characterization techniques for the various ferrite nanomaterials, including spinel ferrite, highlighting their enhanced sensitivity, stability, and selectivity in glucose detection has been discussed thoroughly. The mechanism of glucose sensing is explained, focusing on the role of ferrite nanoparticles in facilitating electron transfer and catalytic activity. Additionally, the integration of ferrite-based sensors with the various transducing elements such as electrochemical, optical, and magnetic systems is examined. Alongside, obstacles and future scopes in this field has been explained, emphasizing the potential for ferrite-based materials to aid to the enhancement of low-cost, and non-invasive glucose monitoring devices with high efficiency. Through this critical analysis, we aim to provide insights into the ongoing research and inspire future innovations in ferrite-based glucose sensing technologies.

Sensors and Actuators ReportsVol. 9
Chandigarh University (IN), Lovely Professional University (IN), INTI International University (MY), Qassim University (SA), National Institute of Technology Hamirpur (BD), Shoolini University (IN), Graphic Era University (IN), Xi’an Jiaotong-Liverpool University (CN), Chitkara University (IN), GLA University (IN), Saveetha University (IN)
Openalex Percentile: Top 10%
Electrochemical sensors and biosensors
2.92
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