Diagnostic In Vivo Sensing of COVID-19 Antibody Detection Using DNA-Linking Graphene Oxide Synthetic Mimic Skin Tattoo Probes

COVID-19 antibody detection is dependent on highly specialized, time-consuming techniques, such as PCR separation, DNA amplification, and other methods such as spectrophotometric absorption. For these reasons, specialized technical training is necessary because individual diagnostic treatment is difficult. We have attempted to perform rapid sensing with a detection time of only 30 s. Additionally, we used a wearable multi-layer graphene oxide nanocolloid synthetic skin tattoo probe assay for influenza and COVID-19 virus detection with an electrochemical antigen-antibody redox ionic titration circuit. Cyclic voltametric-2 V~2.0 V potential windows were used. The diagnostic detection limit was determined using stripping anodic and cathodic amplifiers, and the working probe was fabricated with a graphene molecule structure with a virus antigen-immobilized amplifier. With redox potential strength obtained within -1.0 V~-1.3 V ionic activity, anodic and cathodic current linearly increased in the phosphate-buffered saline 5 mL electrolyte. The results indicate that instant detection was enabled via individual and wearable tattoo sensors.

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Publication Details

Journal
Microorganisms
Published
2025-02-06
DOI
https://doi.org/10.3390/microorganisms13020354
Primary Topic
SARS-CoV-2 detection and testing
Type
article
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article

Diagnostic In Vivo Sensing of COVID-19 Antibody Detection Using DNA-Linking Graphene Oxide Synthetic Mimic Skin Tattoo Probes

Seo Jun Lee, Yeon‐Mok Oh, Suw Young Ly, Sihyun Jun et al.
Microorganisms
SARS-CoV-2 detection and testing
article

Diagnostic In Vivo Sensing of COVID-19 Antibody Detection Using DNA-Linking Graphene Oxide Synthetic Mimic Skin Tattoo Probes

Seo Jun Lee, Yeon‐Mok Oh, Suw Young Ly, Sihyun Jun, Dong Ho Kim, Kyung Lee, Yeseul Oh, Keun Young Kim
article en

Abstract

COVID-19 antibody detection is dependent on highly specialized, time-consuming techniques, such as PCR separation, DNA amplification, and other methods such as spectrophotometric absorption. For these reasons, specialized technical training is necessary because individual diagnostic treatment is difficult. We have attempted to perform rapid sensing with a detection time of only 30 s. Additionally, we used a wearable multi-layer graphene oxide nanocolloid synthetic skin tattoo probe assay for influenza and COVID-19 virus detection with an electrochemical antigen-antibody redox ionic titration circuit. Cyclic voltametric-2 V~2.0 V potential windows were used. The diagnostic detection limit was determined using stripping anodic and cathodic amplifiers, and the working probe was fabricated with a graphene molecule structure with a virus antigen-immobilized amplifier. With redox potential strength obtained within -1.0 V~-1.3 V ionic activity, anodic and cathodic current linearly increased in the phosphate-buffered saline 5 mL electrolyte. The results indicate that instant detection was enabled via individual and wearable tattoo sensors.

MicroorganismsVol. 13(2)
Seoul National University of Science and Technology (KR), University of Michigan (US), Korea Institute of Radiological and Medical Sciences (KR)
Openalex Percentile: Top 96%
SARS-CoV-2 detection and testing
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Diagnostic In Vivo Sensing of COVID-19 Antibody Detection Using DNA-Linking Graphene Oxide Synthetic Mimic Skin Tattoo Probes — Seo Jun Lee, Yeon‐Mok Oh, et al. · Microorganisms (2025) | TGRS Research Map | TGRS