探索全球顶尖大学的研究室——研究领域与主要论文一览无余。
Professor Do-Youn Oh's research lab focuses on advancing therapeutic strategies for gastrointestinal malignancies, particularly biliary tract cancer (BTC) and pancreatic cancer. The lab investigates the role of immune checkpoint inhibitors, such as durvalumab, in combination with chemotherapy to improve outcomes in advanced disease. A key research direction involves identifying prognostic biomarkers, including sarcopenia and muscle depletion, to better predict patient response and survival. The lab also contributes to pivotal clinical trials, such as the TOPAZ-1 phase 3 study, to establish immunotherapy as a standard of care in BTC.
Professor Hyoungsoo Kim's research lab specializes in interfacial phenomena and microfluidics, focusing on the dynamics of droplet evaporation, Marangoni flows, and surface-mediated assembly processes. The lab investigates how surfactants, polymers, and interfacial forces govern the formation of uniform coatings, patterned deposits, and functional nanofilms. By combining experimental visualization, advanced velocimetry (e.g., Tomo-PIV and 3D-PTV), and theoretical modeling, the group explores fundamental mechanisms in multiphase systems for applications in microfluidics, separation technologies, and materials fabrication.
Professor Byung-Joo Ham's research lab specializes in the neurobiological and neurochemical underpinnings of mood and stress-related disorders, with a focus on the interplay between genetic variations, epigenetic modifications, and brain structure/function. The lab investigates how polymorphisms in monoaminergic systems—such as serotonin, dopamine, and norepinephrine—along with epigenetic markers like NR3C1 methylation and neurochemical metabolites such as N-acetylaspartate (NAA), contribute to the pathophysiology of major depressive disorder (MDD), post-traumatic stress disorder (PTSD), and related traits like alexithymia. Using multimodal neuroimaging (fMRI, MRS) and molecular genetics approaches, the lab aims to identify biomarkers and neural circuit mechanisms underlying emotional dysregulation and stress vulnerability. Their work bridges genetics, neurochemistry, and brain imaging to advance personalized understanding of psychiatric disorders.
Professor Joohyung Park's research lab specializes in the development of advanced nanomaterial-based sensors for environmental and biomedical applications. The lab focuses on creating highly sensitive and selective detection platforms for hazardous pollutants, including perfluorinated compounds, heavy metals, pesticides, and neurotoxic proteins like amyloid-β. Key research directions involve surface-enhanced Raman scattering (SERS), electrochemical sensing, and biomimetic nanostructures to enable ultrasensitive, real-time monitoring of toxicants in water and biological systems. The lab emphasizes sustainable synthesis methods and the integration of functional nanomaterials such as silver nanostructures, bismuth nanoplates, and molecularly imprinted polymers for practical sensing applications.
Professor Mingchong Dai's research lab specializes in the design and synthesis of advanced functional materials, particularly focusing on 1D/2D heterostructured photocatalysts and photostable near-infrared (NIR) organic fluorophores for environmental and biomedical applications. The lab pioneers interface engineering in nanomaterials to enhance charge separation and catalytic efficiency, while also developing ratiometric and photostable fluorescent probes for sensitive detection of biological targets such as NQO1 in cancer cells. Their work bridges materials science, photochemistry, and bioimaging, aiming to create sustainable solutions for energy conversion and deep-tissue imaging.
Professor Jung-Hye Choi's research lab focuses on the molecular mechanisms underlying ovarian cancer and endometriosis, with a particular emphasis on the roles of reproductive hormones, growth factors, and metabolic regulators such as leptin and gonadotropins in tumor progression and cellular signaling. The lab investigates autocrine and paracrine signaling pathways involving receptors like FSHR, GnRH-R, and leptin receptors, as well as key signaling cascades such as Notch and MAPK in ovarian epithelial cells and cancer models. Their work integrates cell biology, molecular oncology, and translational research to identify novel therapeutic targets for gynecological malignancies and endometriotic disorders.
Professor Seungdae Oh's research lab specializes in environmental remediation and sustainable materials development, focusing on the removal of hazardous pollutants such as dyes and heavy metals from water using eco-friendly, bio-based nanomaterials. The lab develops advanced functional materials—such as magnetic biosorbents, graphene-based composites, and plant-mediated photocatalysts—designed for high efficiency, reusability, and low environmental impact. Key research directions include the synthesis of sustainable adsorbents from natural resources (e.g., black cumin seeds, tamarind) and the application of green chemistry in catalytic and enzymatic processes for water purification. The lab also investigates the environmental fate and toxicity of emerging contaminants, including pharmaceuticals and dye metabolites, to support safer and more sustainable water treatment strategies.
Professor Tomohiro Fukuda's research lab specializes in the integration of advanced digital technologies—such as augmented reality (AR), virtual reality (VR), and building information modeling (BIM)—with architectural, urban, and environmental design. The lab focuses on enhancing spatial understanding, decision-making, and public participation through immersive visualization of 3D city models and digital twins. It also explores bio-inspired solutions in environmental management, including biological pest control and the application of glycocluster interfaces in neurodegenerative disease research.
Professor Jin Ho Chung's research lab specializes in dermatological aging, focusing on the molecular and cellular mechanisms underlying photoaging and intrinsic skin aging in human skin, particularly in Asian populations. The lab investigates the protective roles of bioactive compounds such as green tea polyphenols (e.g., EGCG) and omega-3 fatty acids (e.g., EPA) in mitigating UV-induced skin damage, including extracellular matrix degradation, apoptosis, and microvascular changes. Key research directions include the regulation of matrix metalloproteinases (MMPs), angiogenesis, and keratinocyte proliferation in response to UV radiation and aging. The lab also explores ethnic differences in cutaneous photodamage, with a strong emphasis on Korean and Asian skin phenotypes.
Professor Seok-Min Kang's research lab focuses on calcium signaling in cancer biology, particularly the role of IP3 receptor subtype 3 in glioblastoma invasion and survival. The lab also investigates cardiovascular protection in heart failure patients with end-stage renal disease, exploring the therapeutic potential of sodium bicarbonate and other interventions. Additionally, the lab examines environmental stressors such as thermal stress and their physiological impacts on poultry, with a focus on thermoregulation and panting responses. A growing interest in the interplay between metabolic hormones like leptin and vascular remodeling further expands the lab’s scope into angiogenesis and vascular inflammation in atherosclerosis.
Professor Seongil Im's research lab specializes in the development and characterization of two-dimensional (2D) semiconductor devices and transparent/ferroelectric thin-film transistors for next-generation optoelectronic and memory applications. The lab focuses on innovative device architectures using materials such as ZnO, MoS2, and transition metal dichalcogenides, emphasizing defect engineering, interface control, and novel fabrication techniques like direct imprinting. Key research directions include high-performance transparent and nonvolatile memory devices, with a strong emphasis on material integration, contact engineering, and scalable fabrication methods for flexible and transparent electronics.
Professor Jae-Jin Kim's research lab specializes in neuropsychiatry and neuroimaging, focusing on the neural circuitry underlying psychiatric disorders such as obsessive-compulsive disorder (OCD), schizophrenia, and delirium. The lab investigates functional and structural brain abnormalities using advanced neuroimaging techniques like SPECT, fMRI, and EEG to uncover disruptions in frontal-subcortical, prefrontal-parietal, and whole-brain network connectivity. A key research direction involves linking these neurobiological findings to clinical symptoms, such as cognitive dysmetria in schizophrenia or inattention in delirium, and exploring potential metabolic and nutritional modulators like zinc in atopic dermatitis.
Professor Jae-Oh Shim's research lab specializes in the design and synthesis of advanced nanomaterials for sustainable energy applications, with a primary focus on catalysis for clean energy conversion. The lab investigates platinum-based and transition metal oxide catalysts—particularly those involving ceria-zirconia solid solutions—for key reactions such as the water-gas shift (WGS) and deoxygenation processes essential for renewable fuel production. Emphasis is placed on optimizing catalyst morphology, metal dispersion, and oxygen vacancy engineering to enhance activity, stability, and resistance to sintering. The lab also explores waste-to-energy conversion and solvent-free processes to improve the efficiency and sustainability of biofuel and hydrogen production technologies.
Professor Kyung-A Hyun's research lab specializes in the development of advanced microfluidic technologies for the isolation, detection, and characterization of rare cells, particularly circulating tumor cells (CTCs), from body fluids. The lab focuses on overcoming the limitations of conventional affinity-based CTC enrichment methods—especially those relying on EpCAM—by exploring alternative strategies such as negative enrichment and label-free isolation, particularly for epithelial-to-mesenchymal transition (EMT)-like or stem-like CTCs that lose surface markers. The lab also pioneers the use of saliva as a liquid biopsy source, aiming to enable non-invasive, real-time monitoring of cancer progression and treatment response. Their work bridges microfluidics, biomedical engineering, and clinical oncology to advance personalized cancer medicine.
Professor In-Seok Song's research lab focuses on the intersection of oral health, systemic diseases, and advanced biomedical technologies. The lab investigates the biological mechanisms linking metabolic disorders—such as insulin resistance and obesity—to periodontal disease and dental caries, while also developing AI-driven diagnostic tools for early detection of periodontal bone loss using deep learning. Additionally, the lab explores neuro-immune interactions in skin diseases and the development of patient-specific titanium implants for maxillofacial reconstruction.
Professor Jun Young Kim's research lab specializes in advanced nanomaterials and their applications in environmental monitoring, polymer nanocomposites, and energy-related technologies. The lab focuses on developing innovative nanofabrication techniques—such as 3D-plasmonic nanoarchitectures for microplastic detection and confined layer-by-layer assembly in nanochannels—to address challenges in sustainability and materials performance. Key research directions include enhancing interfacial interactions in carbon nanotube-reinforced polymers, improving the efficiency of fusion energy systems through fast-ion transport modeling, and creating functional coatings for next-generation devices.
Professor Woojin Jeon's research lab specializes in the development of advanced dielectric materials and atomic layer deposition (ALD)-based thin films for next-generation nanoelectronics and energy applications. The lab focuses on optimizing high-k dielectrics, such as HfO₂, ZrO₂, and Al-doped TiO₂, for use in capacitors, transistors, and memory devices, with an emphasis on reducing leakage current and enhancing dielectric performance. Key research directions include the design of nanolaminated and core-shell oxide structures, integration of novel electrode materials (e.g., Ru, TiN), and the application of ALD for scalable, atomic-scale film growth. The lab also explores functional oxide materials for biomedical applications, such as fermented ginseng extract in diabetes models, demonstrating a multidisciplinary approach bridging materials science and biomedicine.
Professor Kaoru Yamada's research lab focuses on the mechanisms of protein clearance and intercellular transmission in neurodegenerative diseases, particularly involving tau and amyloid-beta proteins. The lab investigates how extracellular tau is released from neurons, especially in response to neuronal activity, and how it is cleared via the glymphatic system and blood-brain barrier. A central theme is the role of aquaporin-4 and peripheral clearance pathways in modulating tau and amyloid-beta burden in the brain. The lab also explores the implications of these mechanisms for disease modification in Alzheimer’s disease and other tauopathies.
Professor Hongyi Li's research lab specializes in advanced energy storage materials, with a primary focus on post-lithium-ion batteries, particularly those based on multivalent ions such as magnesium and aluminum. The lab investigates innovative anode materials—especially aluminum-foil-based alloys and silicon-aluminum solid solutions—that mitigate volume expansion and improve cyclability during repeated lithiation and delithiation. By combining first-principles calculations with electrochemical experiments, the group explores ion diffusion mechanisms, dual-ion co-intercalation, and dendrite suppression to enable safe, high-energy-density rechargeable batteries. Their work also emphasizes practical electrolyte and cathode compatibility, especially for room-temperature magnesium-ion batteries using oxide cathodes.
Professor Jung Hee Cheon's research lab specializes in cryptography and privacy-preserving computation, with a strong focus on homomorphic encryption, post-quantum cryptography, and secure systems for real-time and safety-critical applications. The lab develops advanced cryptographic primitives such as hybrid homomorphic encryption, identity-based and timed-release encryption, and efficient solutions for secure machine learning on encrypted data. Their work bridges theoretical foundations with practical deployment, particularly in securing networked vehicles, biomedical data, and financial systems.
