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 Utkarsh Mangal's research lab specializes in the development of advanced biomaterials for dental and biomedical applications, with a focus on enhancing the mechanical, surface, and antimicrobial properties of 3D-printed polymers. The lab investigates nanomaterials such as nanodiamonds and zwitterionic polymers to improve biocompatibility, reduce biofilm formation, and increase the durability of dental implants and prosthetics. Key research directions include surface engineering of poly(methyl methacrylate) (PMMA) and acrylate-based resins for intraoral applications, as well as optimizing post-processing techniques for 3D-printed dental devices. The lab integrates materials science, biofilm dynamics, and clinical dentistry to design patient-specific, infection-resistant medical devices.
Professor Eun-young Park's research lab focuses on clinical and translational studies in geriatric health, anesthesiology, and oncology. Key research directions include understanding the interplay between psychological stress, social support, and depression in older adults, optimizing sedation and ventilation strategies during surgery, and investigating novel SIRT1 inhibitors for their anticancer potential, particularly in ovarian cancer. The lab employs a combination of clinical trials, physiological monitoring, and molecular biology techniques to address patient outcomes and disease mechanisms.
Professor Soonsik Kwon's research lab specializes in nonlinear dispersive partial differential equations, with a focus on the well-posedness, stability, and long-time dynamics of solutions to equations such as the nonlinear Schrödinger, Korteweg–de Vries, and Vlasov–Poisson systems. The lab develops advanced analytical techniques—particularly infinite iteration of normal form reductions and refined multilinear estimates—to establish unconditional well-posedness and modified scattering results. A central theme is understanding the interplay between symmetry, critical thresholds (e.g., mass or regularity), and the formation or stability of solitons and blow-up solutions.
Professor Hyung Joon Kim's research lab specializes in advanced microwave and millimeter-wave power amplifier design, with a strong focus on high-efficiency, wideband, and linearity-enhanced RF front-end architectures for next-generation wireless communication systems. The lab explores innovative techniques such as harmonic manipulation, envelope tracking, and advanced matching networks to optimize power-added efficiency and bandwidth in CMOS and III-V semiconductor technologies. Key research directions include linearized power amplifiers for 5G and short-range chip-to-chip communications, as well as high-power GaN-based amplifiers for energy-efficient transmission. The lab emphasizes practical integration and performance optimization for real-world applications in mobile and high-speed data communication systems.
Professor Soohyun Yang's research lab specializes in the hydrological and ecological dynamics of urban and riverine systems, with a focus on the scaling, topology, and evolution of engineered drainage networks and nutrient transport in urbanized river basins. The lab integrates principles from fluvial geomorphology, water quality modeling, and ecosystem ecology to understand how urban infrastructure and wastewater discharges shape river network organization and aquatic ecosystem health. Key research directions include the application of Hortonian and Hack's laws to engineered systems, the spatial-temporal dynamics of nutrient loads from wastewater treatment plants, and the development of dynamic models for algal communities in river networks. The lab employs geo-referenced data, network analysis, and multi-scale modeling to address challenges in urban water management and environmental sustainability.
Professor Hye Eun Park's research lab focuses on the molecular and immunological microenvironment of colorectal cancer, with a strong emphasis on tumor-infiltrating lymphocytes, immune checkpoint expression (such as PD-L1), and the tumor-stroma interaction. The lab develops and applies advanced digital pathology and image analysis tools to quantify immune cell infiltration and stromal composition, aiming to improve prognostic prediction and immunotherapy response. They also investigate the role of genetic alterations (e.g., KRAS mutations) and aberrant protein expression (e.g., TTF-1) in shaping the tumor microenvironment and influencing clinical outcomes. Additionally, the lab explores the crosstalk between coagulation and fibrosis in cancer progression, highlighting potential therapeutic targets in the tumor microenvironment.
Professor Ji-Man Hong's research lab focuses on the genetic and metabolic underpinnings of neurological disorders, with a particular emphasis on motor neuron diseases, Parkinson’s disease, and peripheral neuropathies. The lab investigates the role of genetic variants—such as SMN gene deletions and B4GALNT1 mutations—in disease susceptibility and progression, while also exploring the impact of metabolic factors like insulin resistance and dyslipidemia on diabetic neuropathy. A key focus is on optimizing drug monitoring, especially for phenytoin, by evaluating free drug levels in relation to serum albumin and pharmacokinetic variability. The lab integrates clinical genetics, metabolic profiling, and pharmacogenomics to improve diagnostic accuracy and personalized treatment strategies in neurodegenerative conditions.
Professor Hee Chang Ahn's research lab specializes in plastic and reconstructive surgery, with a strong focus on innovative microsurgical techniques and tissue engineering applications. The lab investigates advanced flap designs—such as the transverse radial artery flap and DIEP flap—for soft tissue reconstruction in breast, facial, and extremity reconstructions. It also explores the clinical efficacy and safety of novel therapies like low-level light therapy for androgenetic alopecia and vascular reconstruction techniques for chronic hand ischemia. The lab emphasizes minimally invasive, patient-centered approaches that enhance both functional outcomes and cosmetic results.
Professor Jaesung Park's research lab specializes in advanced nanoscale electronic devices for next-generation computing and biomedical applications. The lab focuses on resistive random-access memory (RRAM) systems, particularly HfO₂- and TiOₓ-based resistive switching devices, for neuromorphic computing and artificial synapse emulation. A key research direction involves optimizing pulse programming schemes and device architecture to achieve precise multilevel conductance states with high linearity and retention. Additionally, the lab develops innovative bio-inspired nanovehicles—such as artificial exosome-like nanovesicles—using microfluidic platforms for targeted delivery of therapeutic biomolecules.
Professor Bon-Wook Koo's research lab specializes in clinical anesthesiology and perioperative medicine, with a strong focus on optimizing neuromuscular blockade and postoperative pain management in surgical patients. The lab investigates the effects of deep neuromuscular blockade on surgical conditions and recovery outcomes, particularly in laparoscopic and minimally invasive procedures. It also explores pharmacological strategies—such as nefopam and dexmedetomidine—for preventing acute and chronic postoperative pain. Additionally, the lab engages in environmental biotechnology, studying fungal biodegradation of phthalate pollutants, demonstrating a multidisciplinary approach combining clinical research and environmental science.
Professor Sul-hee Baek's research lab specializes in clinical and translational neuroscience, focusing on neuroimmunological disorders and neurodegenerative diseases. The lab investigates biomarkers and imaging techniques—such as CSF MOG-IgG testing, diffusion tensor imaging (DTI), and facial nerve ultrasonography—to improve the diagnosis, prognosis, and treatment monitoring of conditions like autoimmune encephalitis, amyotrophic lateral sclerosis (ALS), fibromyalgia, and Bell’s palsy. A key focus is on identifying objective, measurable indicators of disease progression and treatment response, particularly through neuroimaging and neurophysiological assessments.
Professor Sung Jae Hwang's research lab specializes in computational neuroscience, medical image analysis, and machine learning with a focus on addressing real-world challenges in healthcare and 3D vision. The lab develops advanced deep learning and domain adaptation techniques to improve the robustness and generalization of models across diverse data distributions, particularly in neuroimaging and point cloud applications. Key research directions include domain generalization, data augmentation for sparse data, and harmonization of multi-scanner neuroimaging data to enhance clinical diagnosis. The lab also investigates human movement analysis, especially in aging populations, using motion capture and musculoskeletal modeling to support independent living in elderly populations.
Professor Han-Wool Jeong's research lab specializes in low-power and high-reliability integrated circuit design, with a focus on advanced SRAM architectures, sense amplifiers, and flip-flops for subthreshold and near-threshold voltage operations. The lab develops innovative memory cell designs—such as power-gated, 9T, and 7T SRAM cells—featuring soft error immunity, reduced energy consumption, and improved stability in nanoscale technologies. Key research directions include sensing circuit optimization, write-assist techniques, and self-timed logic for energy-efficient digital systems in advanced FinFET processes. The lab’s work targets next-generation memory and logic circuits for energy-constrained applications like IoT and mobile devices.
Professor Jeong-wan Choi's research lab specializes in gastrointestinal and liver diseases, with a strong focus on Helicobacter pylori infection, upper gastrointestinal bleeding, gastroesophageal reflux disease (GERD), and the interplay between chronic hepatitis B virus (HBV) infection and metabolic syndrome in relation to hepatocellular carcinoma and extrahepatic malignancies. The lab investigates novel treatment strategies for H. pylori, evaluates clinical scoring systems for upper GI bleeding, and explores the role of microbial and biochemical factors in bile duct stone recurrence. Their work integrates clinical gastroenterology with epidemiological and microbiological approaches to improve patient outcomes in digestive diseases.
Professor Sin-Ho Kuk's research lab specializes in diagnostic breast imaging, with a focus on advancing ultrasound elastography, contrast-enhanced imaging techniques such as CEDM and CEMRI, and image-guided interventions in breast cancer. The lab investigates innovative methods for tumor localization using surgical clips and marker clips, particularly in the context of neoadjuvant chemotherapy and sentinel lymph node biopsy. Their work emphasizes improving diagnostic accuracy, treatment planning, and surgical outcomes through advanced medical imaging technologies.
Professor Kyung-Sup Chang's research lab specializes in the critical analysis of developmental states, familial capitalism, and the socio-political dynamics shaping South Korea’s unique modernization path. The lab explores how familial structures underpin economic development, welfare politics, and democratic transitions, particularly through the lens of 'compressed modernity' and 'familial capitalism.' It also investigates the intersections of gender, education, industrialization, and neoliberalism in East Asian contexts, with a focus on structural inequalities and citizenship rights.
Professor Hae-Jeong Hwang's research lab specializes in advanced 3D shape measurement and optical metrology, focusing on high-speed, high-accuracy three-dimensional profiling using digital fringe projection and structured light techniques. The lab develops innovative computational frameworks that integrate geometric constraints, phase unwrapping algorithms, and real-time synchronization for robust 3D reconstruction. Key research directions include autofocusing with tunable lenses, absolute phase unwrapping without additional cameras, and high-speed 3D measurement using DLP projectors and high-speed cameras.
Professor Jun Hee Kim's research lab focuses on the cellular and synaptic mechanisms underlying neural circuit function, with a central emphasis on the role of myelination in neuronal excitability, action potential precision, and synaptic transmission. The lab investigates how myelin loss—particularly in genetic models like the Long-Evans Shaker rat—affects action potential dynamics, synaptic connectivity, and neural processing in the auditory and cerebellar systems. Using electrophysiological, imaging, and molecular approaches, the lab explores the interplay between axonal ion channels, myelin integrity, and activity-dependent signaling in oligodendrocytes. Their work reveals critical roles for myelin in maintaining temporal fidelity of neural signaling and in regulating neuronal network excitability.
Professor Hyunjaesang Hwang's research lab specializes in advanced 3D shape measurement and digital fringe projection techniques, focusing on high-speed, high-accuracy, and absolute 3D profilometry using structured light systems. The lab develops innovative computational frameworks that integrate geometric constraints, phase unwrapping algorithms, and real-time synchronization of high-speed projectors and cameras to enable precise 3D reconstruction in dynamic and complex environments. Key research directions include autofocusing with tunable lenses, noise-resilient multi-frequency phase-shifting algorithms, and the application of dual-telecentric optics for microscopic 3D measurement. The lab also pioneers novel methods for absolute phase unwrapping and sub-pixel accuracy through geometric modeling and temporal phase unwrapping strategies.
Professor Yun-Kyung Cha's research lab specializes in the sociology of education, with a focus on curriculum studies, educational policy, and the institutionalization of knowledge in global and national contexts. The lab explores the dynamics of knowledge transmission through school curricula, particularly examining how social, economic, and political forces shape educational content and practices. A central theme is the development and implementation of interdisciplinary, or 'fusion,' education models—such as STEAM and cross-curricular approaches—that aim to cultivate creativity, diversity, and critical citizenship in an increasingly complex, multicultural, and globalized world. The lab also investigates the global spread of English language education as a reflection of supranational educational ideals and citizenship models.
