Jinyoung Kim
Yonsei University · Medicine
About the Lab
Professor Jinyoung Kim's research lab focuses on interdisciplinary biomedical and materials science research, with a strong emphasis on understanding disease mechanisms and developing advanced functional materials. Key research directions include the role of molecular adhesion molecules like selectins in cancer metastasis, the application of deep learning to air traffic data analytics for delay prediction, and the design of stimuli-responsive polymer nanofibers for cell capture and delivery. The lab also investigates the epigenetic regulation of disease-related genes such as CFTR in cancer and the biological effects of environmental electromagnetic fields on reproductive health.
Research Overview
Research Output Trend
Figures are computed from collected data and may differ slightly.
Selected Papers
15Selectins are adhesion receptors that normally recognize certain vascular mucin-type glycoproteins bearing the carbohydrate structure sialyl-Lewisx. The clinical prognosis and metastatic progression of many epithelial carcinomas has been correlated independently with production of tumor mucins and with enhanced expression of sialyl-Lewisx. Metastasis is thought to involve the formation of tumor-platelet-leukocyte emboli and their interactions with the endothelium of distant organs. We provide a
Deep learning has achieved significant improvement in various machine learning tasks including image recognition, speech recognition, machine translation and etc. Inspired by the huge success of the paradigm, there have been lots of tries to apply deep learning algorithms to data analytics problems with big data including traffic flow prediction. However, there has been no attempt to apply the deep learning algorithms to the analysis of air traffic data. This paper investigates the effectiveness
Caught in a web: Photo-cross-linkable temperature-responsive polymer-based nanofiber webs have been synthesized that have the ability to capture, encapsulate, and release cells by dynamically transforming the fibrous structure into hydrogel-like structures by wrapping, swelling, and deswelling processes in response to external temperature changes (see picture).
A contrast agent jet from LA to RA toward the inferior vena cava with channel-like appearance of the IAS on CT images confirms the presence of a PFO.
BACKGROUND AND OBJECTIVE: The exact role of the cystic fibrosis transmembrane conductance regulator (CFTR) in pathophysiology, and the mechanisms regulating its expression are poorly understood. The CFTR gene is known to be genetically or epigenetically associated with several cancers. In the present study, the methylation status of the promoter region of the CFTR gene and its expression in primary non-small cell lung cancer (NSCLC) were investigated. METHODS: The methylation status of the promo
Research Areas
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