世界の主要大学の研究室を探索 — 研究分野と主要論文を一目で確認できます。
Professor Jin-Hee Han's research lab focuses on the neural mechanisms underlying memory formation and fear regulation, with a particular emphasis on identifying the specific neurons and circuits that encode memories—known as the engram. The lab employs advanced optogenetic, chemogenetic, and viral tracing techniques to manipulate and map neural activity in key brain regions such as the lateral amygdala, anterior cingulate cortex, and thalamocortical circuits. A central theme is understanding how competition among neurons, regulated by molecular factors like CREB, shapes memory allocation and circuit refinement during learning. The lab also investigates how prefrontal-amygdala circuits control innate and conditioned fear responses, contributing to insights into emotional memory and potential treatments for anxiety and PTSD.
Professor Yun-Kyung Jang's research lab focuses on the intersection of systemic inflammation, metabolic health, and cerebrovascular and cardiovascular diseases. Her team investigates the role of oral hygiene and periodontal disease as modifiable risk factors for stroke and heart failure, while also exploring metabolic markers—such as the TyG index—and microbiota composition in predicting disease severity and outcomes in conditions like COVID-19 and acute ischemic stroke. The lab employs large-scale population-based cohorts and preclinical models to uncover novel pathophysiological mechanisms and potential therapeutic targets.
Professor Sungho Lee's research lab focuses on molecular and translational biomedical research, with key interests in cancer biology, particularly the anti-cancer mechanisms of natural compounds like costunolide in skin and other cancers. The lab also investigates molecular pathways in bone metabolism, especially the role of estrogen receptor α in regulating osteogenic transcription factors such as Dlx3. Additionally, the lab develops innovative biotechnological tools, including multiplex genotyping assays and molecular farming using chickens as bioreactors for therapeutic protein production. A significant aspect of their work involves improving diagnostic methods for food allergens and understanding the pathophysiology of hearing disorders such as auditory neuropathy spectrum disorder (AN).
Professor Hoon Park's research lab focuses on molecular and translational studies in medical microbiology, with a strong emphasis on cellular responses to environmental stressors such as sulfite and zinc deficiency. The lab investigates gene regulation and metabolic adaptation in *Saccharomyces cerevisiae*, particularly the role of plasma membrane proteins and transcriptional regulators in detoxification pathways. Additionally, the lab explores clinical applications of micronutrient supplementation—especially zinc— in dermatological conditions like alopecia areata, and examines gait biomechanics using wearable sensor technology for clinical assessment. These diverse research directions converge on understanding molecular mechanisms underlying human disease and developing targeted therapeutic interventions.
Professor SangJoon Lee's research lab focuses on the molecular mechanisms of innate immune responses, particularly the regulation of inflammatory cell death pathways such as PANoptosis in viral infections and cancer. The lab investigates the interplay between key immune regulators like ZBP1 and ADAR1 in maintaining cellular homeostasis and shaping antiviral and antitumor immunity. A central theme is understanding how interferon signaling, nucleic acid sensing, and RNA editing converge to influence cell fate decisions in diseases like COVID-19 and lymphoma.
Professor Jae-Jin Kim's research lab specializes in urban atmospheric dispersion, focusing on the interaction between airflow, pollutant transport, and urban microclimates. The lab employs advanced computational fluid dynamics (CFD) modeling to investigate how urban morphology, green infrastructure (such as trees and green roofs), and thermal effects influence wind comfort, air quality, and pollutant dispersion in street canyons. Key research directions include the impact of building geometry, urban vegetation, and passive cooling strategies on near-surface airflows and pedestrian-scale environmental conditions. The lab emphasizes both numerical simulation and validation through wind-tunnel experiments and field measurements.
Professor Jaeyoung Kim's research lab specializes in adolescent mental health and family violence, with a primary focus on the long-term psychological impacts of child maltreatment—including physical abuse, emotional abuse, neglect, and exposure to domestic violence—on youth development. The lab investigates critical outcomes such as suicidal ideation, delinquent behavior, school adaptation, and aggression, while emphasizing protective factors like social support, parent-adolescent communication, and problem-solving skills. Using large-scale survey data and structural equation modeling, the lab aims to identify mediating and moderating mechanisms to inform evidence-based social work interventions and policy development.
Professor Moon-Soo Lee's research lab focuses on neuropsychiatry and behavioral health, with a strong emphasis on understanding the neurobiological and psychological underpinnings of mental health conditions such as schizophrenia, menopausal symptoms, and internet gaming addiction. The lab employs neuroimaging, clinical trials, and psychometric assessments to explore brain-behavior relationships, particularly in the prefrontal cortex and limbic regions, and to evaluate pharmacological interventions like testosterone and bromocriptine. Research also extends to behavioral patterns in adolescents, examining the interplay between internet use, gaming, and psychological well-being. The lab integrates clinical neuroscience with public health perspectives to improve quality of life across the lifespan.
Professor Woong-Han Kim's research lab specializes in pediatric and congenital cardiac surgery, with a focus on complex congenital heart disease repair, hemodynamic optimization, and long-term outcomes in pediatric patients. The lab investigates innovative surgical techniques such as one-stage biventricular repair with cerebral perfusion, Fontan conversion, and shunt procedures, aiming to improve survival and reduce complications. It also develops preclinical models for heart failure and studies systemic challenges in accessing pediatric cardiac care in low- and middle-income countries. The lab integrates clinical outcomes with experimental models and health systems research to advance pediatric cardiac care globally.
Professor Tae Hee Kim's research lab focuses on clinical and translational studies in nephrology, particularly in hemodialysis patients. The lab investigates key clinical outcomes such as protein and iron metabolism, electrolyte balance, and mortality risks, with an emphasis on personalized treatment strategies. Research also extends to health behavior and organizational psychology, exploring student identification and institutional support within academic settings. The lab integrates epidemiological, physiological, and behavioral perspectives to improve patient care and health system effectiveness.
Professor Hee Kyung Yang's research lab specializes in ophthalmic imaging and neuro-ophthalmology, focusing on the development and validation of advanced imaging techniques for diagnosing and monitoring ocular motility disorders. The lab investigates the clinical implications of neurological and vascular complications in eye movement disorders, including optic neuropathy from medication, post-injection ocular complications, and the association between systemic conditions like sleep apnea and ischemic optic neuropathy. A key emphasis is placed on improving diagnostic accuracy and reproducibility through computerized image analysis and 3D imaging systems.
Professor Donghyun You's research lab specializes in computational fluid dynamics and turbulence modeling, with a focus on complex flow phenomena in turbomachinery, such as tip-leakage flows, vortical structures, and cavitation. The lab employs advanced numerical methods, including large-eddy simulation (LES) and immersed boundary techniques, to investigate viscous losses, unsteady flow dynamics, and flow control strategies. Recent work also extends into data-driven approaches, such as generative adversarial networks (GANs), for predicting typhoon tracks using satellite imagery. The lab integrates high-fidelity simulations with innovative modeling techniques to address challenges in aero- and hydrodynamics.
Professor Bong-Keun Choi's research lab specializes in clinical biochemistry and immunology, with a primary focus on prostate-specific antigen and acid phosphatase (PAP) as tumor markers. The lab has made significant contributions to the immunological characterization, purification, and assay development of prostatic acid phosphatase, including its isozymic forms and antigenic specificity. Research also extends to growth standards in pediatrics and radiation-induced bone complications in gynecological oncology, reflecting a multidisciplinary approach combining clinical diagnostics with molecular immunology. The lab's work has advanced the understanding of tumor markers and their application in cancer diagnosis and monitoring.
Professor Sang Yoon Joo's research lab specializes in the development of advanced surfactant and molecular engineering strategies to enable the selective dispersion, separation, and functionalization of single-walled carbon nanotubes (SWNTs). The lab focuses on exploiting the unique electronic and chiral properties of SWNTs by designing biomimetic ligands—particularly flavin mononucleotide (FMN) derivatives—that enable high photoluminescence quantum yields, enantioselective separation, and chirality-specific enrichment. Their work bridges supramolecular chemistry, nanomaterials science, and optoelectronics, with applications in high-performance photovoltaics, sensors, and nanoelectronics. The lab also employs advanced spectroscopic and analytical techniques such as NMR and optical spectroscopy to probe molecular interactions at the nanotube-surfactant interface.
Professor Ho-Kyung Kim's research lab specializes in structural dynamics and wind engineering, with a primary focus on the dynamic behavior and serviceability of long-span bridges under environmental loads. The lab investigates vortex-induced vibrations (VIV), crosswind aerodynamic instability, and buffeting responses using a combination of wind tunnel testing, operational modal analysis, and advanced numerical modeling. Key research directions include the assessment of vehicle safety under crosswinds, the identification of modal damping ratios from nonstationary ambient vibration data, and the development of probabilistic frameworks for wind hazard evaluation. The lab also explores mitigation strategies such as tuned mass dampers and aerodynamic modifications to enhance bridge performance and safety.
Professor Suk Joo Bae's research lab specializes in reliability engineering and statistical modeling, with a focus on failure analysis and yield optimization in electronic devices and systems. The lab develops advanced statistical models—such as nonlinear degradation models, change-point models, and spatial regression models (including ZIP and negative binomial with spatial covariates)—to analyze defect distributions and degradation behaviors in semiconductors, display technologies (e.g., PDPs, VFDs), and integrated circuits. The lab also applies statistical and computational methods to public health data, as seen in its meta-analysis on malaria prevalence in Pakistan. A recurring theme is the use of random effects and mixture models to capture complex, non-monotonic degradation and spatial clustering phenomena.
Professor Jin-Won Lee's research lab focuses on redox signaling and metalloprotein regulation in bacterial stress response, particularly the molecular mechanisms of peroxide sensing and gene regulation in Gram-positive bacteria. The lab investigates how transcriptional regulators such as PerR, OhrR, and Fur-family proteins use metal cofactors (Fe²⁺, Mn²⁺, Zn²⁺) and redox-sensitive cysteine residues to detect oxidative stress and control defense gene expression. Key research directions include the structural and functional characterization of redox-sensing domains, disulfide and sulfenic acid formation, and metal-dependent conformational changes in transcriptional regulators. The lab also explores the role of these regulatory systems in bacterial pathogenesis and antibiotic resistance, particularly in pathogens like *Staphylococcus aureus*.
Professor Seunghyun Lee's research lab specializes in interdisciplinary biomedical and nanotechnological innovations, focusing on autoimmune disease mechanisms, particularly anti-DNA antibody interactions, and their implications in systemic lupus erythematosus. The lab also develops advanced biosensing platforms, such as ionic field-effect transistors (IFETs), for molecular detection across diverse electrolytic environments. Additionally, the lab contributes to biomedical imaging, particularly using arterial spin-labeling MRI to evaluate cerebrovascular hemodynamics in patients with moyamoya disease. These efforts reflect a strong integration of molecular biology, nanofabrication, and clinical imaging technologies.
Professor Woojae Kim's research lab specializes in the photophysical and photochemical dynamics of functional organic semiconductors, with a focus on intramolecular charge transfer, singlet fission, and excimer formation in tailored molecular architectures. The lab employs advanced ultrafast spectroscopic techniques—such as time-resolved fluorescence, impulsive stimulated Raman spectroscopy, and Bayesian adaptive psychophysics—to probe real-time structural and electronic changes during excited-state processes. Their work bridges molecular design with functional applications in optoelectronics, including organic photovoltaics, sensors, and vision science. By manipulating molecular structure and environment (e.g., solvent polarity, side-chain engineering), the lab aims to control and optimize energy and charge transfer dynamics for next-generation optoelectronic materials.
Professor Guhyeon Moon's research lab specializes in microvascular reconstructive surgery, with a primary focus on perforator flaps for soft tissue reconstruction. The lab investigates the detailed vascular anatomy of perforators—particularly the thoracodorsal artery perforators—to optimize flap design and improve surgical outcomes. Key research directions include preoperative imaging for perforator localization, donor-site morbidity reduction (e.g., seroma prevention), and clinical applications in complex reconstructions such as post-burn contractures and breast reconstruction. The lab also evaluates perfusion patterns in free flaps to refine surgical planning and enhance flap survival.
