Seung Hyun Kim Data-verified
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Biography and Research Information
OverviewAI-generated summary
Seung Hyun Kim's research focuses on the application of advanced computational techniques, particularly deep learning and machine learning, to address challenges in diverse fields such as medicine, materials science, and public health. He has investigated the use of deep semi-supervised learning for automatic segmentation of the inferior alveolar nerve using convolutional neural networks and developed deep learning algorithms for real-time counting of wheezing events from lung sounds, with implications for disease prediction and early intervention. His work also extends to materials science, where he has explored the inverse design of high-strength medium-Mn steel using machine learning-aided genetic algorithms.
Kim has also contributed to health sciences by analyzing factors affecting neutralizing antibody production after COVID-19 vaccination and comparing nicotine dependence and biomarker levels among different tobacco product users. Further research includes studying alterations in lung microbial communities in obese allergic asthma and the immune response evoked by oral lymphatic delivery of specific compounds. His scholarly output is reflected in a h-index of 29, over 164 publications, and more than 3,300 citations, designating him as a highly cited researcher.
Metrics
- h-index: 29
- Publications: 164
- Citations: 3,312
Selected Publications
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Young Adults’ Responses to E-Cigarette Advertisements: An Examination for Potential Regulation (2025)
Collaboration Network
Top Collaborators
- Electric vehicle pattern-based battery cycling dataset and its application in predicting rapid degradation
- Diagnosing rapidly degrading lithium ion battery cells using direct current internal resistance
- Electric Vehicle Pattern-based Battery Cycling Dataset and Its Application in Predicting Rapid Degradation
- Diagnosing Rapidly Degrading Lithium Ion Battery Cells Using Direct Current Internal Resistance
- Electric Vehicle Pattern-based Battery Cycling Dataset and Its Application in Predicting Rapid Degradation
- Electric vehicle pattern-based battery cycling dataset and its application in predicting rapid degradation
- Diagnosing rapidly degrading lithium ion battery cells using direct current internal resistance
- Electric Vehicle Pattern-based Battery Cycling Dataset and Its Application in Predicting Rapid Degradation
- Diagnosing Rapidly Degrading Lithium Ion Battery Cells Using Direct Current Internal Resistance
- Electric Vehicle Pattern-based Battery Cycling Dataset and Its Application in Predicting Rapid Degradation
- Electric vehicle pattern-based battery cycling dataset and its application in predicting rapid degradation
- Diagnosing rapidly degrading lithium ion battery cells using direct current internal resistance
- Electric Vehicle Pattern-based Battery Cycling Dataset and Its Application in Predicting Rapid Degradation
- Diagnosing Rapidly Degrading Lithium Ion Battery Cells Using Direct Current Internal Resistance
- Electric Vehicle Pattern-based Battery Cycling Dataset and Its Application in Predicting Rapid Degradation
- Electric vehicle pattern-based battery cycling dataset and its application in predicting rapid degradation
- Diagnosing rapidly degrading lithium ion battery cells using direct current internal resistance
- Electric Vehicle Pattern-based Battery Cycling Dataset and Its Application in Predicting Rapid Degradation
- Diagnosing Rapidly Degrading Lithium Ion Battery Cells Using Direct Current Internal Resistance
- Electric Vehicle Pattern-based Battery Cycling Dataset and Its Application in Predicting Rapid Degradation
- Electric vehicle pattern-based battery cycling dataset and its application in predicting rapid degradation
- Diagnosing rapidly degrading lithium ion battery cells using direct current internal resistance
- Electric Vehicle Pattern-based Battery Cycling Dataset and Its Application in Predicting Rapid Degradation
- Diagnosing Rapidly Degrading Lithium Ion Battery Cells Using Direct Current Internal Resistance
- Electric Vehicle Pattern-based Battery Cycling Dataset and Its Application in Predicting Rapid Degradation
- Electric vehicle pattern-based battery cycling dataset and its application in predicting rapid degradation
- Diagnosing rapidly degrading lithium ion battery cells using direct current internal resistance
- Electric Vehicle Pattern-based Battery Cycling Dataset and Its Application in Predicting Rapid Degradation
- Diagnosing Rapidly Degrading Lithium Ion Battery Cells Using Direct Current Internal Resistance
- Electric Vehicle Pattern-based Battery Cycling Dataset and Its Application in Predicting Rapid Degradation
- Deep semi-supervised learning for automatic segmentation of inferior alveolar nerve using a convolutional neural network
- Risk of acute and chronic coronary syndrome in a population with periodontitis: A cohort study
- Comparison of Nicotine Dependence and Biomarker Levels among Traditional Cigarette, Heat-Not-Burn Cigarette, and Liquid E-Cigarette Users: Results from the Think Study
- Alterations of lung microbial communities in obese allergic asthma and metabolic potential
- Alterations of lung microbial communities in obese allergic asthma and metabolic potential
- Stachydrine Showing Metabolic Changes in Mice Exposed to House Dust Mites Ameliorates Allergen-Induced Inflammation
- Oral lymphatic delivery of alpha-galactosylceramide and ovalbumin evokes anti-cancer immunization
- Fusion nanoparticle system of extracellular vesicles and docetaxel-loaded liposomes: an innovative therapeutic strategy to enhance anticancer efficacy
- Spin-orbit coupling in van der Waals materials for optical vortex generation
- Spin-Orbit Coupling for Optical Vortex Generation in van der Waals Materials
- Spin-orbit coupling in van der Waals materials for optical vortex generation
- Spin-Orbit Coupling for Optical Vortex Generation in van der Waals Materials
- Spin-orbit coupling in van der Waals materials for optical vortex generation
- Spin-Orbit Coupling for Optical Vortex Generation in van der Waals Materials
- Stachydrine Showing Metabolic Changes in Mice Exposed to House Dust Mites Ameliorates Allergen-Induced Inflammation
- Gene Expression Changes in House Dust Mite-induced Allergy: From Mouse Model to Human Asthma
- Stachydrine Showing Metabolic Changes in Mice Exposed to House Dust Mites Ameliorates Allergen-Induced Inflammation
- Gene Expression Changes in House Dust Mite-induced Allergy: From Mouse Model to Human Asthma
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