Investigation of Structural, Optical, Electrical, and Biological Properties of a Porous Platinum Electrode for Neurostimulation Devices

The structural and optical properties, as well as the electrical and biological characteristics of a porous platinum (Pt) structure for neurostimulation applications, are investigated. Critical factors such as biocompatibility, electrical performance, and structural and optical differences, which can adversely affect the functionality of implantable devices, are systematically analyzed and compared with general electrodes. By employing an integration of three-dimensional simulations and implantation experiments, we demonstrate that the remarkably extensive surface area, low reflectance, and outstanding peak current values inherent in porous Pt facilitate effective stimulation while simultaneously ensuring a high degree of biological safety. Our findings suggest that these beneficial characteristics collectively position porous Pt as a notably promising candidate for implantable electrodes in biomedical devices.

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Publication Details

Journal
ACS Applied Bio Materials
Published
2025-04-04
DOI
https://doi.org/10.1021/acsabm.4c01974
Citations
3
Primary Topic
Neuroscience and Neural Engineering
Type
article
Field-Weighted Citation Impact
2.73

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article

Investigation of Structural, Optical, Electrical, and Biological Properties of a Porous Platinum Electrode for Neurostimulation Devices

Dae‐Woo Jeon, Hachul Jung, J. Kim, Keun-A Chang et al.
3 citations
ACS Applied Bio Materials
Neuroscience and Neural Engineering
2.73
article

Investigation of Structural, Optical, Electrical, and Biological Properties of a Porous Platinum Electrode for Neurostimulation Devices

Dae‐Woo Jeon, Hachul Jung, J. Kim, Keun-A Chang, Seong‐Woo Kim, Gwang-Geun Oh, Junghyun Lee, Wonseok Lee, Taeyoung Ha, Jungsuk Kim, Lee-Woon Jang
article en
3 citations

Abstract

The structural and optical properties, as well as the electrical and biological characteristics of a porous platinum (Pt) structure for neurostimulation applications, are investigated. Critical factors such as biocompatibility, electrical performance, and structural and optical differences, which can adversely affect the functionality of implantable devices, are systematically analyzed and compared with general electrodes. By employing an integration of three-dimensional simulations and implantation experiments, we demonstrate that the remarkably extensive surface area, low reflectance, and outstanding peak current values inherent in porous Pt facilitate effective stimulation while simultaneously ensuring a high degree of biological safety. Our findings suggest that these beneficial characteristics collectively position porous Pt as a notably promising candidate for implantable electrodes in biomedical devices.

ACS Applied Bio MaterialsVol. 8(4)
Korea National University of Transportation (KR), Gachon University (KR), Samsung Medical Center (KR), Centre for Biomedical Engineering and Physics (SE), Korea Institute of Ceramic Engineering and Technology (KR), Neuroscience Institute (IT), Eye Center (SA), Convergence (US), The Medical Device (United Kingdom) (GB), Osong Medical Innovation Foundation (KR), Cell Medica (Switzerland) (CH)
Ministry of Trade, Industry and Energy, Korea Institute for Advancement of Technology, Ministry of Science and ICT, South Korea
Openalex Percentile: Top 11%
Neuroscience and Neural Engineering
2.73
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