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 Yoonmook Kang's research lab specializes in advanced photovoltaic materials and devices, focusing on enhancing the efficiency, stability, and scalability of next-generation solar cells. Key research directions include perovskite solar cells with an emphasis on ion migration and electric field-induced degradation, hybrid organic-inorganic perovskite structures, nanostructured materials such as CdTe nanorods and graphene quantum dots for tandem and hybrid solar cells, and the reliability of CIGS thin-film modules under real-world conditions like partial shading. The lab integrates materials synthesis, device engineering, and environmental stress testing to address critical challenges in solar energy conversion.
Professor Chang-Bum Chun's research lab specializes in the analytical and numerical study of nonlinear partial differential equations arising in mathematical physics and engineering. The lab focuses on developing and applying advanced analytical methods—such as the exp-function method, extended tanh method, and homotopy perturbation method—to derive exact and numerical solutions for nonlinear evolution equations, including time-delayed and memory-influenced systems like the Burgers and Chaffee-Infante equations. The research emphasizes traveling wave solutions, soliton structures, and the dynamics of convection-diffusion processes with finite memory. The lab also integrates symbolic computation to enhance solution accuracy and efficiency.
Professor Ki-Ho Lee's research lab specializes in pharmaceutical and translational sciences, focusing on drug metabolism, toxicity mechanisms, and the development of analytical methods for veterinary drug residues. The lab investigates the molecular mechanisms underlying drug disposition and toxicity, particularly through in vitro models using human cell lines and primary tissues. Key research directions include the prediction of drug-induced liver injury via cytochrome P450-mediated bioactivation, the role of neuropeptides in neurobehavioral regulation, and the optimization of in vitro embryo production systems for agricultural and biomedical applications in pigs. The lab also emphasizes the development of rapid, reliable analytical techniques for monitoring drug residues in food and biological systems.
Professor Soo-Jin Yang's research lab focuses on cognitive and clinical psychology, with a primary emphasis on executive functioning in bilingual children, the impact of digital media on adolescent body image, and psychopharmacological interventions in schizophrenia. The lab investigates how cognitive control, cultural influences, and technology use shape mental health and behavior across developmental stages. It also explores the neurocognitive and psychiatric effects of antipsychotic medications, particularly in relation to cognitive function, medication adherence, and side effects such as obsessive-compulsive symptoms.
Professor Kyu Hong Kim's research lab specializes in advanced signal processing and computational modeling for biomedical and aerospace engineering applications. The lab focuses on developing efficient beamforming techniques for real-time ultrasound imaging, optimizing aerodynamic designs for high-speed train pantographs, and advancing computational fluid dynamics for hypersonic propulsion systems. Additionally, the lab explores next-generation memory technologies to address the scalability limits of conventional semiconductor memories.
Professor Yong-Won Lee's research lab specializes in materials science and engineering, with a primary focus on advancing sodium-ion battery technology through innovative electrolyte design and electrode stabilization. The lab investigates fundamental electrochemical processes, particularly the suppression of dendrite formation and promotion of dense sodium metal plating, using advanced electrolyte formulations such as FEC-based systems with NaFSI salts. In parallel, the lab contributes to educational measurement and language assessment, applying psychometric theories like generalizability theory to improve the reliability and validity of language test scores in high-stakes testing environments such as TOEFL. The integration of materials science and educational measurement reflects a multidisciplinary approach to solving critical challenges in energy storage and language assessment.
Professor Jeong Joon Yoo's research lab specializes in orthopedic biomaterials and regenerative medicine, with a focus on improving joint replacement outcomes and tissue engineering for musculoskeletal repair. The lab investigates advanced bearing surfaces in total hip arthroplasty—particularly alumina-on-alumina implants—aiming to enhance durability and reduce wear in young, active patients. It also explores biologically active strategies such as platelet-rich plasma (PRP) pretreatment of scaffolds to promote meniscal and cartilage regeneration, using in vivo models to evaluate tissue healing potential. The lab integrates clinical outcomes with preclinical experimentation to develop next-generation implant solutions.
Professor Sung Min Park's research lab specializes in embedded systems, sensor networks, and low-power electronics, with a strong focus on designing intelligent, energy-efficient systems for real-world applications. The lab develops innovative sensor-based platforms—such as smart badges and middleware infrastructures—for applications in education, healthcare, and environmental monitoring. Key research directions include battery-aware system design, high-speed optoelectronic receivers, and the integration of advanced CMOS technologies with photodetectors for high-performance communication and sensing. The lab also explores human-computer interaction through virtual environments, particularly in understanding social facilitation effects using virtual humans.
Professor Jungwoo Oh's research lab specializes in the development of advanced nanomaterials and functional devices for sustainable energy and electronics applications. Key research directions include the design of 3D carbon-based aerogels and hybrid composites for high-performance supercapacitors, the engineering of non-precious metal electrocatalysts for hydrogen evolution reactions, and the fabrication of high-speed, low-power semiconductor devices based on germanium epitaxial layers on silicon substrates. The lab integrates materials synthesis, nanostructure engineering, and device physics to advance energy storage, conversion, and next-generation electronics.
Professor Dong-Kyu Jin's research lab specializes in medical genetics and molecular pathology, with a primary focus on lysosomal storage disorders such as mucolipidosis and Hunter syndrome. The lab investigates disease-causing mutations in genes like GNPTA, GNPTAG, and IDS, employing molecular diagnostics, mutation analysis, and functional modeling to understand disease mechanisms. Additionally, the lab explores genetic and cytogenetic aspects of neurodevelopmental and growth disorders, including Xp deletion syndromes, integrating clinical phenotypes with molecular and chromosomal microarray analyses. The research also extends to spinal disorders and interventional techniques like vertebroplasty, particularly in the context of pregnancy and structural spine correction.
Professor Youngjae Yu's research lab specializes in the design and development of advanced polymer nanocomposites with tailored thermal, mechanical, and radiative properties. The lab focuses on enhancing thermal conductivity and anisotropy in 2D materials and polymer matrices through controlled filler dispersion and surface modification, particularly using hexagonal boron nitride and carbon-based fillers. A key research direction involves creating sustainable, eco-friendly materials for passive radiative cooling and energy-efficient building applications. The lab also investigates the morphology-property relationships in polymer blends and nanocomposites using advanced characterization techniques such as TEM, WAXS, and FE-SEM.
Professor Chul Kim's research lab specializes in the design and integration of implantable and wearable biomedical microsystems, with a focus on ultra-low-power, high-performance neuromodulation and biosensing technologies. The lab develops advanced CMOS-based system-on-chip solutions for neural recording, wireless power transfer, and bio-signal acquisition, emphasizing miniaturization, energy efficiency, and robustness in real-world environments. Key research directions include motion artifact mitigation in wearable EEG/PPG systems, fully integrated wireless power receivers, and high-dynamic-range neural interfaces for untethered brain-computer interfaces and implantable devices.
Professor Chul-Yong Choi's research lab focuses on the molecular mechanisms underlying transcriptional regulation and DNA damage response, with a central emphasis on the roles of protein kinases—particularly HIPK2—and their interactions with transcription factors, coactivators (like p300), and corepressors (such as Groucho and CtBP). The lab investigates how post-translational modifications, including phosphorylation and ubiquitination, regulate transcription factor activity and DNA repair pathways, especially in response to genotoxic stress. Key research directions include the dynamic regulation of transcriptional repressors and activators, the control of corepressor complex assembly, and the coordination of transcription with DNA double-strand break repair. These studies integrate molecular biology, biochemistry, and cell biology to elucidate fundamental mechanisms in development and genome stability.
Professor Myung Hwan Yun's research lab focuses on human-centered technology development, with a strong emphasis on human-robot interaction, brain-computer interfaces (BCIs), and accessible product design. The lab investigates usability, user experience, and intuitive interaction methods—particularly in social robotics, hybrid BCI systems, and assistive technologies for elderly and disabled users. Research spans from cognitive and perceptual aspects of product design to the development of natural interaction paradigms using VR and sensor-based systems. The lab integrates empirical user studies, system evaluation, and design science to create inclusive and user-friendly technologies.
Professor Gone Ahn's research lab focuses on the immunomodulatory effects of radiation therapy and the tumor microenvironment, particularly the roles of myeloid cells, tumor-associated macrophages, and hypoxia in treatment resistance and angiogenesis. The lab investigates how high-dose and FLASH radiotherapy alter immune cell infiltration, vascular integrity, and metabolic reprogramming in solid tumors, with translational aims to improve outcomes in colorectal, lung, and other cancers. Key interests include the interplay between radiation, immune cell recruitment, and tumor metabolism, especially glycolysis and hypoxia pathways.
Professor Sungsoo Park's research lab specializes in energy-efficient and spectrally efficient wireless communication systems, with a strong focus on cognitive radio networks powered by energy harvesting. The lab investigates optimal spectrum access strategies, energy management, and mode selection policies in dynamic and constrained environments, leveraging stochastic models such as Markov processes to address real-world challenges like primary user protection and intermittent energy availability. Key research directions include throughput maximization under energy causality and collision constraints, as well as cross-tier interference mitigation in heterogeneous cellular networks. The lab integrates principles from stochastic optimization, partially observable Markov decision processes, and network resource allocation to design intelligent, sustainable communication systems.
Professor Suk-Ho Kang's research lab specializes in advancing minimally invasive urological surgery, with a strong focus on robotic-assisted laparoscopic techniques such as robot-assisted radical cystectomy (RARC) and radical prostatectomy. The lab investigates surgical innovation, perioperative outcomes, and the optimization of intracorporeal urinary diversion to improve patient recovery and oncological outcomes. Additionally, the lab pioneers point-of-care diagnostics, particularly label-free, real-time detection of urinary microRNAs using novel nanomaterial-based biosensors for noninvasive disease monitoring.
Professor Tae-Jin Lee's research lab specializes in wireless networking and communication systems, with a strong focus on energy efficiency, medium access control (MAC) protocols, and performance optimization in emerging wireless technologies. The lab investigates critical challenges in low-power wireless networks such as IEEE 802.15.4 WPANs, Bluetooth piconets, and IEEE 802.11-based systems, particularly in managing latency, throughput, and fairness under constrained conditions. A key research direction involves developing intelligent and adaptive mechanisms for energy harvesting, power saving, and reliable malware detection in IoT and cyber-physical systems. The lab also explores decentralized and scalable algorithms for fair bandwidth allocation and low-latency communication in dynamic network environments.
Professor Sung Ho Lee's research lab specializes in molecular and systems biology, with a focus on signal transduction pathways, functional genomics, and host-microbe interactions. The lab investigates key regulatory molecules such as TNF-alpha and PTEN in cellular processes like apoptosis and proliferation, while also advancing plant biotechnology through rice and barley genetic improvement. Additionally, the lab develops bioinformatics tools and machine learning pipelines for analyzing complex biological data, particularly in gut microbiome research and disease diagnosis.
Professor Heejoon Ahn's research lab specializes in the design and fabrication of advanced nanomaterials for sustainable energy applications, with a strong focus on energy storage and conversion. The lab explores novel 3D nanostructured electrodes, including nanorod arrays, hybrid carbon nanotube–metal hydroxide systems, and layered double hydroxides, for high-performance supercapacitors and aqueous zinc-ion batteries. Their work emphasizes scalable, low-cost synthesis methods such as chemical bath deposition and sonochemical techniques to enhance conductivity, ion diffusion, and electrochemical stability. The lab also investigates functional nanomaterials for chemical sensing and optoelectronic applications, leveraging surface chemistry and electron-beam interactions.
