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 Kang-Neung Lee's research lab focuses on gastrointestinal disorders, particularly irritable bowel syndrome (IBS), with an emphasis on understanding the multifactorial pathophysiology involving the gut-brain axis, intestinal microbiota, immune modulation, and visceral hypersensitivity. The lab investigates novel therapeutic approaches, including proton pump inhibitor alternatives and natural compounds with anti-inflammatory properties, using preclinical and clinical models. Research also extends to functional gastrointestinal testing, such as lactulose breath testing, to correlate gas production with IBS symptoms. The lab integrates molecular biology, clinical gastroenterology, and natural product chemistry to explore mechanisms and treatments for gut-related diseases.
Professor Jae-Young Sim's research lab specializes in computer vision and image processing, with a strong focus on solving real-world visual degradation problems. The lab develops advanced algorithms for image restoration, including rain/snow streak removal, dehazing, and image stitching under challenging conditions such as large parallax. Key research directions include leveraging low-rank matrix recovery, nonlocal filtering, and random walk with restart for saliency detection and object representation. The lab also actively contributes to benchmark challenges, pushing the state-of-the-art in image dehazing and video restoration.
Professor Eeeseok Lee's research lab focuses on computational materials science and high-performance computing, with a strong emphasis on understanding ion insertion mechanisms in lithium-ion battery materials through advanced simulation techniques such as grand canonical Monte Carlo and ab initio cluster expansion. The lab also specializes in GPU-accelerated terrain rendering and adaptive visualization algorithms, addressing challenges in real-time processing of massive 3D geospatial data using hierarchical data structures like quadtrees. Additionally, the lab explores intelligent information retrieval systems, particularly adaptive agents for personalized and collaborative search. These diverse research directions reflect a multidisciplinary approach combining materials modeling, computer graphics, and artificial intelligence.
Professor Yongno Kim's research lab specializes in the development of bio-based functional materials using enzymatic modification and advanced formulation techniques. The lab focuses on enhancing the solubility, stability, and bioavailability of bioactive compounds—particularly fat-soluble vitamins and nutraceuticals—through host-guest complexation with cyclodextrin-like molecules such as cycloamylose. Key research directions include the design of emulsions and hydrogels using natural polymers like rice starch and whey protein for food and pharmaceutical applications, with an emphasis on improving physicochemical properties via enzyme engineering. The lab also explores sustainable protein sources, such as sesame meal, for producing natural emulsifiers through enzymatic treatment.
Professor Hong-Gu Cheon's research lab specializes in iontronics and microfluidic systems, focusing on the development of functional materials and devices that manipulate ions for biomedical and environmental applications. The lab pioneers ion-conductive polymers, such as poly-AMPS and PDADMAC, to enable efficient ion transport, preconcentration, and sensing in aqueous environments. Key research directions include designing biocompatible, flexible, and omniphobic surfaces for blood-contacting devices, as well as creating low-voltage, active micromixers and particle sensors using polyelectrolyte-based electrodes. The lab’s work bridges soft materials, electrokinetics, and bio-integrated microsystems for next-generation point-of-care diagnostics and implantable devices.
Professor Yuri Kim's research lab specializes in hematological malignancies and neuroimmunology, focusing on the pathogenesis, prognosis, and treatment of rare and aggressive lymphomas such as primary adrenal diffuse large B-cell lymphoma and peripheral T-cell lymphoma. The lab investigates prognostic factors, treatment responses, and novel therapeutic strategies, including stem cell transplantation, mesenchymal stem cell therapy, and electroacupuncture in neurological recovery. A key interest lies in understanding the role of immune dysregulation in conditions like hemophagocytic lymphohistiocytosis and POEMS syndrome, with an emphasis on cytokine involvement and iron overload in transplant outcomes.
Professor Seon-Young Lee's research lab focuses on the intersection of psychological factors and health outcomes in chronic illness, particularly cancer, exploring how emotions, self-efficacy, and interpersonal competence influence health information seeking and patient well-being. The lab also conducts genomic and clinical research on cancer progression, especially colorectal and cervical cancers, investigating somatic mutations, metastasis, and the therapeutic potential of hyperthermia. Additionally, the lab examines the psychological and social development of gifted youth, with a focus on emotional intelligence, moral judgment, and peer relationships. The integration of behavioral science and biomedical research defines the lab’s multidisciplinary approach to improving patient care and health outcomes.
Professor Ki-ae Kim's research lab specializes in hepatology and liver disease epidemiology, with a strong focus on chronic hepatitis B (CHB) and metabolic dysfunction-associated steatotic liver disease (MASLD). The lab investigates long-term clinical outcomes, viral load dynamics, and risk stratification for hepatocellular carcinoma (HCC), particularly in treatment-naïve and antiviral-treated patients. They also explore the systemic implications of liver disease, including associations between NAFLD/MASLD and neurodegenerative conditions like dementia. Their work combines large-scale cohort studies with clinical and virological biomarker analysis to improve surveillance and patient management strategies.
Professor Aeree Chung's research lab specializes in extragalactic astrophysics, focusing on the interplay between galaxy evolution, environmental effects, and the role of gas in shaping galactic structures. The lab conducts deep radio continuum and molecular line surveys—particularly using the VLA and Large Millimeter Telescope—to study neutral (H i) and molecular (CO) gas in galaxies, especially in dense environments like the Virgo Cluster and in extreme systems such as ultraluminous infrared galaxies (ULIRGs). A key focus is understanding feedback mechanisms, including massive molecular outflows driven by AGN and starbursts, and their impact on galaxy evolution. The lab also investigates compact, radio-bright active galactic nuclei through very long baseline interferometry (VLBI) to probe jet formation and nuclear activity.
Professor Sung-Dae Cho's research lab specializes in molecular oncology and cancer chemoprevention, focusing on the identification and mechanism of bioactive natural compounds that induce apoptosis in human cancer cells. The lab investigates how dietary phytochemicals and non-steroidal anti-inflammatory drugs modulate key signaling pathways, particularly through the regulation of transcription factors like specificity protein 1 (Sp1), death receptors, and Bcl-2 family proteins. Their work emphasizes the role of proteasomal degradation, mitochondrial apoptosis, and caspase activation in various cancer types, including cervical, prostate, oral, and colorectal cancers. The lab integrates molecular biology, protein and gene expression analysis, and pharmacological inhibition to uncover novel therapeutic targets for cancer prevention and treatment.
Professor Kab-Jin Kim's research lab specializes in spintronics and nanomagnetic devices, focusing on the fundamental physics of current-driven magnetization dynamics, magnetic skyrmions, and spin Hall nano-oscillators. The lab explores energy-efficient magnetic memory and logic devices, with particular emphasis on electric-field control of magnetic properties, domain wall dynamics, and room-temperature spintronic applications using two-dimensional materials. Their work combines advanced experimental techniques—such as in situ electrical resistance measurements, magnetic X-ray microscopy, and real-time domain wall imaging—with theoretical modeling to develop next-generation neuromorphic and low-power magnetic technologies.
Professor Byun Kyung Min's research lab specializes in nanophotonics, plasmonics, and bio-integrated nanomaterials, focusing on the development of advanced optical and photothermal nanosystems for biomedical applications. The lab pioneers innovative approaches in targeted hyperthermia using functionalized nanoparticles, such as mitochondria-targeted iron oxide nanoplatforms, and explores plasmonic nanomaterials—particularly gold nanorods and gold nanowires—for highly sensitive and selective biosensing and neural stimulation. Their work emphasizes the design of nanostructures that enhance surface plasmon resonance (SPR) sensitivity, stability, and signal transduction, with applications in disease detection, cancer therapy, and neuromodulation. The lab integrates experimental validation with rigorous theoretical modeling to advance next-generation optoelectronic and biosensing platforms.
Professor Lee Won Gu's research lab specializes in micro- and nanoscale engineering for biomedical applications, focusing on lab-on-a-chip systems, microfluidics, and advanced cell manipulation techniques. The lab develops innovative tools for single-cell analysis, controlled drug and nanoparticle delivery via electroporation, and long-term 3D cell culture platforms. Recent work also extends into immersive digital health technologies, including metaverse-enabled wearables for real-time healthcare monitoring and rehabilitation. The lab integrates bioengineering, materials science, and biomedical sensing to advance personalized and precision medicine.
Professor Jeong Hoon Yoo's research lab specializes in topology optimization and multiphysics design for electromagnetic and magnetic field applications. The lab focuses on developing advanced computational methods—such as the homogenization design method and SIMP-based topology optimization—to optimize the performance of electric machines, motors, antennas, and electromagnetic couplers by maximizing magnetic energy, vector potential, and force output. The lab also investigates multimaterial and multiphysics design using innovative formulations like reaction-diffusion equations and sensitivity analysis, with applications in electrostatic chucks and high-precision electromagnetic systems.
Professor Jihyeon Yeom's research lab specializes in the design and functionalization of advanced nanomaterials with tailored chiral, optical, and mechanical properties for biomedical and technological applications. The lab focuses on photon-to-matter chirality transfer, chiral nanomaterials, and surface engineering to enable smart biomaterials that interact selectively with cells and proteins. Key research directions include the development of chiral supraparticles, stimuli-responsive gels, and biocompatible quantum dot systems for medical data encoding and diagnostics.
Professor Young-Kyu Yoon's research lab specializes in cutting-edge computational and optical imaging techniques for high-resolution, large-volume visualization of biological systems, particularly in neuroscience and developmental biology. The lab develops innovative imaging modalities such as sparse decomposition light-field microscopy and self-supervised denoising methods to achieve single-cell resolution in dynamic neuronal activity mapping. It also pioneers advanced imaging technologies like PICASSO for multi-color fluorescence unmixing and whole-body expansion microscopy for nanoscale imaging of vertebrate organisms. The lab integrates principles from electrical engineering, computational neuroscience, and bioengineering to push the limits of optical imaging in complex biological specimens.
Professor Sunghwan Kim's research lab specializes in next-generation wireless communication systems, particularly focusing on the development of advanced 6G technologies and energy-efficient Internet of Things (IoT) architectures. The lab also pioneers multifunctional epidermal and triboelectric electronic systems for biomedical applications, emphasizing biocompatible, flexible, and self-powered wearable devices. Additionally, the lab explores smart materials and coatings for sustainable infrastructure, such as superhydrophobic coatings for ice- and snow-free pavements. These interdisciplinary efforts bridge telecommunications, nanomaterials, and smart healthcare technologies.
Professor Yun-Hap Song's research lab specializes in intelligent optimization techniques and advanced power system applications, with a strong focus on energy efficiency, voltage stability, and smart grid technologies. The lab develops innovative evolutionary and metaheuristic algorithms—such as fuzzy-controlled evolutionary programming, genetic algorithms, and hybrid optimization strategies—for solving complex problems in distribution network reconfiguration, combined heat and power dispatch, and power system stability assessment. Additionally, the lab explores next-generation semiconductor devices and memory technologies, including spin-transfer torque MRAM and 3D gate-all-around MONOS cells, for high-performance, low-power electronics. The integration of computational intelligence with power systems and nanoelectronics defines the lab’s interdisciplinary research direction.
Professor Jeong Su Park's research lab specializes in clinical microbiology and molecular diagnostics, with a focus on the accurate identification and characterization of bacterial and viral pathogens. The lab investigates antimicrobial resistance, particularly methicillin-resistant *Staphylococcus aureus* (MRSA), and employs advanced molecular techniques such as real-time PCR, 16S rRNA sequencing, and machine learning-based tools for rapid pathogen detection. Research also extends to human papillomavirus (HPV) variants and group B *Streptococcus* (GBS), emphasizing their clinical and epidemiological implications in infectious diseases. The lab integrates molecular diagnostics with health policy analysis, particularly in evaluating public health interventions like the basic old-age pension program.
Professor Gihyuk Lee's research lab focuses on human-computer interaction, particularly in the design and evaluation of novel interaction techniques for mobile and wearable devices. The lab explores tactile feedback, gesture-based input, and alternative input methods such as wrist-based rotation and direct-writing interfaces to enhance usability in constrained form factors like smartwatches. Research also extends to low-cost, intuitive input devices for interactive TV and the optimization of text entry systems through innovative keyboard layouts and interaction metaphors.
