Long-Lived Flexible Silicon Carbide Electronics for Cell Recording and <i>In Situ</i> Hyperthermia

This work presents a flexible, long-lived silicon carbide (SiC) electrode system for cell sensing and hyperthermia induction. Leveraging the superior chemical stability of SiC, mechanical robustness, and biocompatibility, the electrode demonstrates robust performance in both sensing and stimulation, while maintaining structural and functional integrity under physiological conditions. We assess the performance of the electrode system in the electrical measurements of breast cancer cells and its efficiency in eliminating the cells <i>via</i> <i>in situ</i> hyperthermia treatment at controlled temperatures. The longevity of our electrode system was examined <i>via</i> accelerated aging tests in phosphate-buffered saline (1× PBS) at elevated temperatures. Experimental results confirm the long-term stability of electrical signals, highly efficient heat generation and transfer, and sustained biocompatibility, indicating the potential for long-lived implanted bioelectronic interfaces.

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Publication Details

Journal
ACS Applied Materials & Interfaces
Published
2025-12-04
DOI
https://doi.org/10.1021/acsami.5c16391
Primary Topic
Neuroscience and Neural Engineering
Type
article
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article

Long-Lived Flexible Silicon Carbide Electronics for Cell Recording and In Situ Hyperthermia

Minh Anh Huynh, Yong Zhu, Van Hoa Ho, Sharda Yadav et al.
ACS Applied Materials & Interfaces
Neuroscience and Neural Engineering
article

Long-Lived Flexible Silicon Carbide Electronics for Cell Recording and In Situ Hyperthermia

Minh Anh Huynh, Yong Zhu, Van Hoa Ho, Sharda Yadav, Tuan‐Khoa Nguyen, Sina S. Jamali, Afia Khan, Nam-Trung Nguyen
article en

Abstract

This work presents a flexible, long-lived silicon carbide (SiC) electrode system for cell sensing and hyperthermia induction. Leveraging the superior chemical stability of SiC, mechanical robustness, and biocompatibility, the electrode demonstrates robust performance in both sensing and stimulation, while maintaining structural and functional integrity under physiological conditions. We assess the performance of the electrode system in the electrical measurements of breast cancer cells and its efficiency in eliminating the cells <i>via</i> <i>in situ</i> hyperthermia treatment at controlled temperatures. The longevity of our electrode system was examined <i>via</i> accelerated aging tests in phosphate-buffered saline (1× PBS) at elevated temperatures. Experimental results confirm the long-term stability of electrical signals, highly efficient heat generation and transfer, and sustained biocompatibility, indicating the potential for long-lived implanted bioelectronic interfaces.

ACS Applied Materials & InterfacesVol. 18(1)
Griffith University (AU), Flinders University (AU)
Openalex Percentile: Top 59%
Neuroscience and Neural Engineering
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