ソウル大学、KAIST、延世大学など韓国QSトップ10大学の研究室情報です。
Professor Jaekyum Kim's research lab specializes in the design and development of advanced electrocatalysts and photoelectrocatalysts for sustainable energy conversion and storage. The lab focuses on rational catalyst engineering using earth-abundant materials, with key research directions including multifunctional electrocatalysts for overall water splitting, oxygen evolution reaction (OER) mechanisms involving lattice oxygen activation, and photoelectrochemical conversion of biomass-derived feedstocks into high-value chemicals. The lab uniquely integrates machine learning with experimental electrochemistry to accelerate the discovery and optimization of efficient, noble-metal-free catalysts.
Professor Sang-Woo Kim's research lab specializes in atmospheric aerosol science, focusing on the climatic impacts of aerosol particles through long-term observational studies, satellite validation, and radiative forcing analysis. The lab investigates the spatiotemporal variability of aerosol optical properties, their role as cloud condensation nuclei, and the influence of water vapor within mineral dust layers on radiative heating. Using in situ ground-based measurements, lidar, and satellite data (e.g., CALIOP, MODIS), the lab advances the understanding of aerosol–radiation–climate interactions across diverse environments and aerosol types.
Professor Kook-Hwan Oh's research lab specializes in chronic kidney disease (CKD) and peritoneal dialysis (PD), with a strong focus on clinical epidemiology, biomarkers, and patient outcomes. The lab investigates key determinants of CKD progression, including systemic and peritoneal inflammation (e.g., IL-6), fluid management strategies using bioimpedance spectroscopy (BIS), and the impact of nutritional status such as protein-energy wasting (PEW). Their work leverages large-scale, multicenter cohort studies like the KNOW-CKD, which tracks CKD progression and comorbidities across diverse patient populations in Korea. The lab also explores the interplay between mental health (e.g., depression) and infectious risks (e.g., tuberculosis) in CKD patients, highlighting systemic and metabolic influences on disease outcomes.
Professor Seong Kwang Kim's research lab specializes in advanced semiconductor materials and devices for next-generation electronics, with a focus on III-V compound semiconductors, ferroelectric field-effect transistors (FeFETs), and neuromorphic computing systems. The lab pioneers monolithic integration of III-V and silicon technologies to enable high-frequency, energy-efficient, and scalable electronic systems for 6G wireless communications and beyond. Key research directions include 3D stackable synaptic transistors, trap-engineered charge-trap flash devices, and defect-free III-V-on-insulator (OI) platforms for low-power, high-performance computing and integrated circuits. The lab emphasizes materials engineering, interface optimization, and innovative fabrication techniques such as direct wafer bonding and epitaxial lift-off to achieve high performance and cost-effective solutions.
Professor Daesoo Kim's research lab focuses on bioelectronic and neuro-metabolic mechanisms underlying aging, pain modulation, and energy homeostasis. The lab pioneers self-powered neuromodulation technologies, such as flexible piezoelectric energy harvesters for deep brain stimulation, and investigates ion channel regulation—particularly T-type calcium channels—in thalamic processing of visceral pain. Additionally, the lab explores metabolic interventions, like NQO1 activation via β-lapachone, to mitigate age-related decline in motor and cognitive functions by enhancing mitochondrial health and energy metabolism. These interdisciplinary efforts bridge neuroscience, bioengineering, and aging biology to develop innovative therapeutic strategies.
Professor YoonSeok Baek's research lab specializes in advanced optical imaging and quantitative phase microscopy, focusing on lensless and holographic imaging techniques to achieve high-resolution, high-throughput, and aberration-resistant imaging of biological and micro/nano-structured samples. The lab develops innovative methods based on Kramers–Kronig relations, white-light interferometry, and speckle-correlation scattering matrices to enable quantitative, label-free, and cost-effective imaging without reliance on traditional optics. Their work bridges computational optics, biomedical imaging, and surface metrology, with applications in life sciences, materials science, and industrial inspection.
Professor Hoon-Chul Kang's research lab specializes in pediatric epilepsy and therapeutic nutrition, with a primary focus on the ketogenic diet (KD) and its application in managing intractable childhood epilepsy. The lab investigates the safety, efficacy, and long-term outcomes of the KD and modified Atkins diet in children with epilepsy, particularly those with structural brain abnormalities such as cortical dysplasia. Research also explores neuropsychological outcomes associated with antiepileptic drugs and the optimal duration of dietary therapy to balance seizure control and growth preservation.
Professor Byoung Seok Ye's research lab specializes in the neuroimaging and biomarker-based investigation of neurodegenerative diseases, particularly Alzheimer’s disease (AD) and small vessel disease (SVD). The lab focuses on understanding the longitudinal progression of mild cognitive impairment (MCI), with particular emphasis on the interplay between amyloid pathology, cerebrovascular burden, and metabolic factors such as uric acid and body mass index (BMI). Using multimodal imaging (PET, MRI) and cerebrospinal fluid biomarkers, the lab aims to identify early prognostic indicators and distinct neurodegenerative phenotypes in at-risk populations.
Professor Hong-Bae Jeon's research lab specializes in next-generation wireless communication systems, with a strong focus on reconfigurable intelligent surfaces (RIS), free-space optical (FSO) communication, and UAV-based backhaul networks. The lab explores innovative architectures for 6G wireless networks, emphasizing high-capacity, energy-efficient, and resilient backhaul solutions in urban and dynamic environments. Key research directions include intelligent reflecting surfaces for full-coverage connectivity, device-to-device communication with full-duplex capabilities, and real-time FPGA-based prototyping for optical wireless transmission under real-world channel impairments.
Professor Jongheun Lee's research lab specializes in the design and synthesis of advanced microwave and millimeter-wave filters with a focus on reflectionless response, broadband impedance matching, and high-performance transmission-line structures. The lab develops innovative, closed-form design methodologies for distributed-element filters—particularly bandpass and bandstop filters—using symmetric topologies, coupled lines, and Cauer-based prototypes to achieve optimal performance across wide frequency ranges. A key research direction involves eliminating signal reflections at both ports without relying on optimization or numerical methods, enabling precise and efficient filter synthesis. The lab also explores the integration of these filters into compact, high-frequency systems for applications in 5G, radar, and satellite communications.
Professor Hyun Cheol Koo's research lab specializes in spintronics and quantum transport in low-dimensional semiconductor heterostructures, with a focus on developing energy-efficient, high-performance spintronic devices. The lab explores fundamental spin transport phenomena, including ballistic spin transport, Rashba spin-orbit coupling, and spin Hall effects, to enable all-electrical manipulation and detection of spin information. Key research directions include the design and characterization of spin field-effect transistors, spin-orbit torque devices, and spin-based logic circuits, with an emphasis on overcoming limitations in spin injection efficiency and signal output. The lab also investigates spin dynamics in quantum wells and magnetic nanostructures, aiming to bridge the gap between spintronic concepts and practical applications in computing and memory technologies.
Professor Soyi Jung's research lab specializes in intelligent networking and communication systems, with a strong focus on energy-efficient and secure solutions for emerging wireless technologies. The lab explores UAV-based surveillance and mobility management, vehicle-to-everything (V2X) communications using mmWave and cellular-V2X, and innovative resource allocation for high-speed, low-latency applications. A key theme across the research is the integration of energy sustainability—through solar-powered charging infrastructure and energy-aware scheduling—alongside data security in critical domains like healthcare and smart transportation.
Professor Heemin Kang's research lab focuses on advancing nanomedicine and biomaterials for precision theranostics and regenerative medicine. The lab develops multifunctional nanomaterials—particularly magnetic and engineered nanoparticles—to overcome biological barriers in extracellular vesicle-based therapies, control cell adhesion through external stimuli like magnetic fields, and modulate the tumor microenvironment for targeted cancer treatment. A central theme is the design of smart biomaterials that dynamically interact with cellular systems to regulate cell fate, tissue repair, and disease progression.
Professor Chung-Yuen Won's research lab specializes in power electronics, renewable energy systems, and intelligent control for sustainable energy applications. The lab focuses on advancing energy conversion efficiency through innovative maximum power point tracking (MPPT) techniques, battery management systems (BMS), and artificial intelligence-based energy management systems (EMS) in hybrid AC–DC distribution networks. Key research directions include soft-switching power converters for photovoltaic systems, real-time state estimation of batteries and motors, and chattering-free control strategies for electric drives.
Professor Ayoung Woo's research lab focuses on urban health equity, examining how built environments, neighborhood social vulnerability, and access to essential services shape the well-being of marginalized populations. The lab investigates the interplay between housing policy, social capital, and physical environments—particularly in relation to walkability, community center access, and healthcare equity. Using mixed-methods and spatial analysis, the lab addresses spatial inequalities in opportunities for low-income and subsidized housing residents in U.S. and South Korean cities. A central theme is the role of urban design and policy in promoting social inclusion and reducing health disparities.
Professor Hyowon Kim's research lab specializes in advanced wireless communication and positioning technologies for intelligent transportation systems, with a strong focus on 5G and 6G-enabled vehicular networks. The lab pioneers innovative solutions in cooperative vehicle localization, radio SLAM (Simultaneous Localization and Mapping), and reconfigurable intelligent surface (RIS)-assisted positioning, leveraging large antenna arrays, mmWave signals, and Bayesian filtering techniques. Key research directions include environment-aware tracking, multipath exploitation, and low-complexity distributed optimization for autonomous driving in GPS-denied urban environments. The lab integrates theoretical rigor with practical deployment, aiming to enhance positioning accuracy and system robustness in dynamic vehicular scenarios.
Professor Junaid Haider's research lab specializes in sustainable bioproduction processes, with a focus on developing energy-efficient methods for the microbial synthesis and purification of high-value chemicals such as 2,3-butanediol. The lab integrates metabolic engineering, process optimization, and advanced separation technologies to enhance yield and reduce energy consumption in biomanufacturing. A key research direction involves designing novel extraction techniques to replace conventional, energy-intensive purification steps, thereby improving the commercial viability of bio-based fuels and chemicals. The lab also explores the integration of systems biology and process engineering to enable scalable and environmentally sustainable bioprocesses.
Professor Jung Kyoon Choi's research lab specializes in integrative genomics and systems biology, focusing on the molecular mechanisms underlying cancer progression and sleep disorders. The lab employs advanced bioinformatics and statistical methods to integrate multi-omics data—particularly gene expression and methylation profiles—across diverse cancer types and populations. Key research directions include identifying epigenetic drivers of immune evasion in tumors, deciphering coexpression network reprogramming in cancer, and uncovering the genetic and metabolic basis of insomnia. The lab emphasizes data integration to enhance the reliability and biological relevance of molecular findings.
Professor Sung Jun Ahn's research lab specializes in radiomics and advanced neuroimaging, focusing on the non-invasive characterization of brain tumors, metastases, and neurological disorders using quantitative MRI techniques. The lab investigates the correlation between imaging phenotypes and underlying molecular or biological subtypes, particularly in brain metastases from lung and breast cancer, as well as in stroke and major depressive disorder. By integrating machine learning with radiological imaging, the lab aims to improve diagnostic accuracy, predict treatment response, and uncover pathophysiological mechanisms through spatial and functional brain network analysis. Their work emphasizes the clinical translation of advanced MRI sequences and radiomic biomarkers for precision medicine.
Professor Youngcheol Chae's research lab specializes in low-power, high-efficiency analog and mixed-signal integrated circuits, with a focus on energy-constrained applications such as implantable medical devices, image sensors, and wearable health systems. The lab develops innovative circuit architectures—including inverter-based switched-capacitor circuits and zoom ADCs—enabling ultra-low power operation in scaled CMOS technologies. It also explores emerging 2D materials like MoS₂ for extended-spectrum photodetection and integrates advanced materials such as graphene into flexible, wearable sensors for real-time physiological monitoring. The lab's work bridges cutting-edge semiconductor design with practical biomedical and environmental sensing applications.
