Explore research labs at leading universities worldwide — research fields and key papers at a glance.
Professor Min Soo Kim's research lab specializes in advanced materials and simulation-driven engineering, focusing on sustainable polymers, biomedical applications of reactive oxygen species, pharmaceutical process modeling, and elastic wave manipulation using metasurfaces. The lab integrates mathematical modeling, experimental validation, and innovative material design to address environmental, medical, and industrial challenges. Key research directions include biodegradable plastics for environmental sustainability, mechanistic simulation of pharmaceutical powder processes, and the development of elastic metasurfaces for tunable wave conversion.
Professor Jong-Chul Park's research lab specializes in biomaterials and tissue engineering, focusing on the development of advanced nanomaterials and surface-modified polymers for regenerative medicine. Key research directions include the design of RGD/PLGA nanofiber matrices and graphene-based substrates for skeletal and neural tissue regeneration, as well as the functionalization of biomaterials like polyurethane and collagen for improved biocompatibility and cell interaction. The lab also investigates the biological effects of natural compounds such as EGCG on cellular senescence and explores novel antimicrobial strategies, including low-amperage electric treatment for seawater disinfection.
Professor Eun Young Kim's research lab focuses on the intersection of consumer behavior, nutritional science, and emerging technologies. The lab investigates factors influencing online shopping behaviors, particularly in fashion and mobile commerce, while also exploring the impact of dietary polyphenols—such as EGCG, green tea extract, and grape seed extract—on mineral absorption and metabolic health. Additionally, the lab examines the application of artificial intelligence, particularly large language models like ChatGPT, in healthcare education and licensing examinations. These diverse research directions reflect a strong emphasis on translational science, from consumer technology adoption to clinical and nutritional applications.
Professor Sung Ho Park's research lab specializes in the design, synthesis, and characterization of functional nanomaterials with a focus on nanostructured catalysts, hybrid superstructures, and plasmonic systems. The lab investigates the assembly behavior of block copolymer and rod-like nanostructures, particularly those incorporating noble metals and conducting polymers, to create tunable superstructures with applications in catalysis and nanoelectronics. A key research direction involves the development of size- and composition-tailored electrocatalysts for fuel cell reactions, using advanced electrochemical and spectroscopic techniques to probe surface reactivity at the nanoscale. The lab also explores template-directed synthesis of core-shell nanoparticles with enhanced optical and catalytic properties, particularly for surface-enhanced Raman scattering (SERS) and energy conversion technologies.
Professor Sung-Jae Kim's research lab specializes in orthopedic surgery and sports medicine, with a strong focus on arthroscopic techniques, rotator cuff repair, and knee ligament reconstruction. The lab investigates long-term outcomes of joint preservation and reconstruction procedures, particularly for complex shoulder and knee injuries, emphasizing functional recovery and structural integrity. Research also extends to elbow stiffness and post-traumatic joint limitations, utilizing arthroscopic interventions to restore range of motion. The lab integrates clinical outcomes with advanced imaging and biomechanical assessment to optimize surgical strategies.
Professor Dongik Kim's research lab specializes in biomedical engineering and advanced imaging, with a focus on neurological disorders such as schizophrenia and peripheral vascular diseases. The lab investigates functional brain connectivity using fMRI and innovative therapeutic strategies like gene therapy and stem cell transplantation for conditions such as severe peripheral arterial disease (PAD) and Buerger’s disease. Additionally, the lab explores advanced materials characterization techniques, including transmitted Kikuchi diffraction (TKD) for nanostructure analysis, and develops precision laser systems for high-resolution optical fabrication. These interdisciplinary efforts bridge neuroscience, regenerative medicine, and materials science to advance diagnostic and therapeutic technologies.
Professor Yong Min Lee's research lab specializes in advanced materials and interface engineering for next-generation lithium-ion and lithium-metal batteries. The lab focuses on developing novel silicon-based anodes, functional binders, and stable solid electrolyte interphases (SEI) to enhance energy density, cycling stability, and interfacial compatibility. Key research directions include nanostructured silicon anodes, conductive additives, and innovative binder systems such as copolyimides to improve electrode adhesion and electrochemical performance.
Professor Chae-ok Yoon's research lab specializes in innovative cancer gene and immunotherapy strategies, focusing on oncolytic adenoviruses as versatile platforms for targeted cancer treatment. The lab integrates gene editing technologies like CRISPR/Cas9 with viral vector systems to selectively eliminate cancer-causing mutations, such as in mutant EGFR, while enhancing antitumor immunity through cytokine coexpression (e.g., IL-12, 4-1BBL, GM-CSF). They also explore physical enhancement methods, such as gold nanorod-mediated hyperthermia, to improve viral delivery and therapeutic efficacy. A central theme is overcoming immunosuppressive tumor microenvironments to boost the potency of dendritic cell vaccines and immune checkpoint blockade.
Professor Sang Hoon Park's research lab specializes in advanced energy materials and power electronics, with a strong focus on nanomaterials for energy storage and conversion. The lab develops high-performance graphene-based nanomaterials through innovative synthesis methods, such as microwave-assisted exfoliation and spray-assisted self-assembly, to enhance electrochemical performance in supercapacitors and batteries. Additionally, the lab designs efficient power conversion systems, particularly soft-switching DC-DC converters, to improve energy efficiency in photovoltaic and electronic systems. The integration of nanomaterials with scalable device architectures is a central theme in advancing next-generation energy technologies.
Professor Myung-Hwan Kim's research lab specializes in the development of small-molecule fluorescent probes for advanced bioimaging, with a focus on two-photon microscopy and live-cell imaging applications. The lab pioneers the design of stimuli-responsive probes for biologically relevant species such as hypochlorite (OCl⁻), enabling real-time visualization of immune responses and oxidative stress in living systems. Their work also extends to membrane domain imaging using polarity-sensitive probes, contributing to the understanding of lipid rafts in cellular signaling. The lab integrates synthetic chemistry, photophysics, and cell biology to create innovative tools for biomedical research.
Professor Joo Han Oh's research lab specializes in shoulder surgery and orthopedic biomechanics, with a primary focus on rotator cuff repair outcomes, prognostic factors for tendon healing, and functional recovery. The lab investigates anatomical and functional outcomes following arthroscopic repair, emphasizing imaging-based assessment (e.g., CT arthrography, MRI) and patient-reported outcomes in patients with full-thickness and massive rotator cuff tears. Key research directions include the impact of patient-related factors—such as age, bone mineral density, and muscle atrophy—on surgical success, as well as rehabilitation protocols and surgical strategies for irreparable tears.
Professor Jaumun Bae's research lab specializes in gastrointestinal oncology, with a primary focus on gastric cancer management, surgical outcomes, and postoperative quality of life. The lab investigates minimally invasive surgical techniques such as laparoscopic-assisted distal gastrectomy (LADG), adjuvant therapy strategies, and predictors of recurrence in early and advanced gastric cancer. A key emphasis is placed on improving patient-reported outcomes, symptom management, and long-term survival through comprehensive, multidisciplinary approaches.
Professor Cheol Lee's research lab focuses on neuroregenerative medicine and affective product design, with a strong emphasis on understanding the molecular mechanisms underlying neural repair and cognitive function in neurodegenerative diseases such as Alzheimer’s disease and traumatic brain injury. The lab investigates endogenous neurogenesis, particularly the role of signaling molecules like VEGF and its receptor Flk1 in hippocampal neurogenesis, and explores the potential of pharmacological agents like quetiapine in treating neuropsychiatric conditions such as delirium. In parallel, the lab applies Kansei engineering and virtual prototyping to decode users’ emotional responses to product design, aiming to bridge the gap between human affect and product innovation. These interdisciplinary efforts integrate neuroscience, molecular biology, and human-centered design to advance both neurological therapeutics and empathetic product development.
Professor Tae-Yoon Lee's research lab specializes in the development of advanced 1D electronic materials and wearable sensors for next-generation smart textiles and human-machine interfaces. The lab focuses on creating highly stretchable, flexible, and sensitive conductive fibers and sensors using nanomaterials such as silver nanowires, silver nanoparticles, and graphene, integrated into elastomeric matrices. Key research directions include wearable electronics, electronic skins (E-skin), and smart textiles with applications in health monitoring, robotics, and wireless control systems.
Professor Jae-jin Kim's research lab specializes in neuropsychiatry and neuroimaging, focusing on the neural mechanisms underlying psychiatric disorders such as obsessive-compulsive disorder, schizophrenia, and delirium. The lab employs advanced neuroimaging techniques—particularly MRI and fMRI—to investigate structural and functional brain abnormalities, with an emphasis on prefrontal, subcortical, and large-scale network dysregulation. Additional research explores the role of micronutrients, such as zinc, in dermatological and neuropsychiatric conditions, highlighting translational connections between neurobiology and systemic health.
Professor Hyun-Mo Ryoo's research lab specializes in molecular mechanisms underlying bone formation and heterotopic ossification, with a focus on the roles of transcription factors such as Dlx5 and Runx2 in osteoblast differentiation. The lab investigates signaling pathways initiated by bone morphogenetic proteins (BMPs), particularly BMP-2, and their downstream targets in regulating osteogenic gene expression. A central theme is understanding how aberrant BMP signaling, as seen in fibrodysplasia ossificans progressiva (FOP), leads to pathological bone formation. The lab employs molecular and cellular approaches in model systems like C2C12 myoblasts to dissect transcriptional networks controlling bone development and disease.
Professor Sang Hoon Lee's research lab specializes in perceptual video and image processing, with a strong focus on foveated imaging and compression techniques that leverage the nonuniform sensitivity of the human visual system. The lab develops advanced rate control algorithms and quality metrics—such as foveal signal-to-noise ratio (FSNR)—to optimize visual quality at reduced bit rates. It also explores applications in real-time video processing, unsupervised image classification using hierarchical clustering, and industrial parameter identification for electric machines. The lab’s work bridges human perception, signal processing, and practical system design for efficient multimedia and smart systems.
Professor Sang-Hyun Kim's research lab specializes in developing advanced nanomaterials and energy harvesting technologies, with a strong focus on triboelectric nanogenerators (TNGs) for flexible, wearable, and sustainable power sources. The lab also investigates bioactive natural compounds—such as gallic acid and diallyl disulfide (DATS)—for their therapeutic potential in treating inflammatory and allergic diseases, particularly through modulation of oxidative stress and Nrf2-mediated cytoprotective pathways. Additionally, the lab explores non-invasive diagnostic strategies for early detection of subclinical atherosclerosis, emphasizing the role of arterial stiffness in cardiovascular disease progression. These interdisciplinary efforts bridge materials science, nanotechnology, and biomedicine to address critical challenges in energy sustainability and human health.
Professor Chang-Sun Choi's research lab specializes in the development of flexible, stretchable, and wearable electro-mechanical devices for next-generation biomedical and electronic applications. The lab focuses on advanced nanomaterials and novel fabrication techniques—such as intaglio transfer printing and helical coiling of carbon nanotube yarns—to create high-performance devices including ultra-thin light-emitting diodes, hemispherically curved image sensors, and fiber-based supercapacitors. Key research directions include energy storage, soft bioelectronics, and optoelectronic integration for implantable and wearable systems.
Professor Suyun Lee's research lab focuses on translational biomedical research with a strong emphasis on clinical pharmacogenomics, maternal-fetal health, and metabolic liver diseases. The lab investigates genetic polymorphisms—particularly CYP2D6—to personalize drug therapy, explores the impact of micronutrient status (such as vitamin D and trace elements) on pregnancy outcomes, and develops novel cellular therapies for glycogen storage diseases. The lab also examines molecular mechanisms underlying diabetic nephropathy, aiming to identify therapeutic targets through preclinical models.
