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 Ji Hae Nahm's research lab specializes in molecular oncology and translational pathology, focusing on the metabolic reprogramming of cancer cells, particularly in thyroid and hepatocellular carcinomas. The lab investigates tumor microenvironment dynamics, including hypoxia-induced stemness and stromal alterations, and explores biomarkers for cancer progression and recurrence. It also conducts studies on pancreatic fibrosis and post-surgical diabetes, as well as diagnostic methods for infectious and genetic markers in rare conditions like Langerhans cell histiocytosis.
Koji Hase教授の研究室は、腸管免疫学と腸内微生物叢の代謝制御を柱として、腸上皮バリア機能と宿主・微生物の相互作用の分子メカニズムを解明しています。特に、抗菌ペプチド（LL-37）、腸内細菌由来代謝産物（酢酸、ポリアミン）、M細胞を介した抗原移動といった仕組みを通じて、自己免疫疾患や代謝障害の発症メカニズムに寄与する因子を解明しています。また、腸内フローラと宿主代謝のクロストークルーディングを解明する国際的水準の研究を推進しています。
田中晋也教授の研究室は、細胞内シグナル伝達の分子機構に焦点を当てており、特にCRKおよびC3Gを含むシグナル分子の相互作用とその機能解明を主な研究テーマとしています。がん細胞における治療抵抗性のメカニズム、特にテモゾロミド耐性に関連するMGMTとSTAT3の機能的連関の解明も進んでいます。シグナル伝達の適切な制御ががんの発症や治療反応に与える影響を、細胞・分子生物学的手法を用いて解明しています。
Professor Hyeyeon Lee's research lab focuses on improving health outcomes in vulnerable populations, particularly adolescents and marginalized groups, through interdisciplinary approaches that integrate public health, behavioral science, and technology. The lab investigates health disparities, mental health, and nutritional behaviors—especially in multicultural and migrant youth—while developing and evaluating tailored, technology-based interventions to promote healthy lifestyles. A key focus is on enhancing social support, behavioral change techniques, and health literacy through innovative digital tools such as SNS-based platforms and interactive bots.
Professor Jeonghye Choi's research lab specializes in consumer behavior, digital marketing, and the intersection of online and offline consumer dynamics. The lab investigates how social interactions, geographic and demographic factors, and online review systems influence consumer demand, online shopping behavior, and customer acquisition strategies. Key research directions include spatiotemporal modeling of demand propagation, preference minorities in online retailing, and the role of social influence and online ratings in shaping consumer engagement. The lab employs advanced statistical and Bayesian modeling techniques to analyze real-world data from major online retailers and digital platforms.
Professor Aaron Park's research lab specializes in theoretical hadron physics, focusing on the structure and dynamics of exotic hadrons such as heavy baryons, dibaryons, tribaryons, and multiquark states. The lab employs constituent quark models with confining and hyperfine interactions to investigate symmetry properties, stability, and short-distance correlations in few-body hadronic systems, particularly under conditions of chiral symmetry restoration and high baryon density. Key interests include the emergence of quarkyonic modes in dense matter and the role of color-spin-flavor wave functions in determining hadron decay properties and nuclear three-body forces. The lab also explores the implications of these findings for lattice QCD and experimental searches in heavy-ion and hadron collider physics.
Professor Doo-Sup Kim's research lab specializes in shoulder and sports-related orthopedic surgery, with a primary focus on shoulder instability, rotator cuff injuries, and arthroscopic surgical techniques. The lab investigates advanced imaging methods such as magnetic resonance arthrography for accurate diagnosis of shoulder lesions and develops innovative arthroscopic procedures—like the 'snake technique' for superior capsular reconstruction using biceps tendon autograft—to improve outcomes in massive rotator cuff tears. The lab also contributes to sports medicine through epidemiological studies on athlete health during major events, such as the PyeongChang Winter Olympics, emphasizing the importance of comprehensive medical support systems in high-risk environments. Their work bridges clinical innovation, diagnostic accuracy, and preventive healthcare in sports medicine.
Professor Thabet Abdeljawad's research lab specializes in fractional calculus, with a focus on discrete and continuous fractional operators featuring nonsingular Mittag-Leffler kernels. The lab explores theoretical developments in fractional difference and sum operators, including their properties, integration by parts, and applications to variational problems and initial/boundary value problems. It also investigates fixed point theory in generalized metric spaces and applies these tools to solve nonlinear integral and differential equations, particularly of Caputo and Atangana-Baleanu types. The work bridges pure mathematics with applied problems in fluid dynamics, heat transfer, and nanofluidic systems.
Professor Si Woo Lee's research lab specializes in heterogeneous catalysis and nanomaterials science, with a central focus on understanding and engineering metal-oxide interfaces to control catalytic activity and selectivity. The lab investigates the role of hot electrons generated at these interfaces, particularly through plasmonic excitation and surface reactions, to drive selective chemical transformations such as CO₂ hydrogenation and CO oxidation. Utilizing advanced in situ characterization techniques like near-ambient pressure scanning tunneling microscopy and Schottky diode-based electron detection, the lab explores dynamic surface structures and electron transfer processes under real catalytic conditions. Their work bridges fundamental surface science with applications in sustainable energy conversion and chemical synthesis.
Professor Hyun-Chel Joo's research lab specializes in vascular surgery and endovascular interventions, with a primary focus on aortic diseases such as aortic dissection, aneurysms, and connective tissue disorders like Marfan syndrome. The lab investigates long-term outcomes, durability, and optimal surgical strategies—including the Bentall procedure, open arch repair, hybrid techniques, and endovascular aneurysm repair (EVAR)—to improve patient survival and functional status. Key research directions include hemodynamic assessment using imaging (e.g., DTA), risk stratification for reintervention, and the role of surveillance and timely open conversion in managing late complications. The lab emphasizes evidence-based, patient-tailored approaches to enhance both short-term safety and long-term durability in complex aortic pathologies.
Professor Seok-Jae Heo's research lab specializes in applying advanced statistical and machine learning methods to public health and biomedical data. The lab focuses on developing and refining signal detection techniques in pharmacovigilance using zero-inflated and Bayesian models, particularly for adverse drug reaction monitoring. It also conducts cutting-edge research in medical image analysis, leveraging deep learning architectures like CNNs to improve early detection of diseases such as tuberculosis from chest X-rays. Additionally, the lab investigates dietary patterns and their impact on childhood obesity, aiming to tailor nutritional interventions based on population subgroups.
Toshiaki Taoka教授の研究室は、脳の脳脊髄液動態と老廃物除去機能を評価する「ALPS法」の開発・応用に焦点を当てており、特に神経変性疾患におけるグリアリンパ系機能の評価を目的としています。非侵襲的で定量的な指標を提供するDWI-ALPS法の最適化や、疾患との関連性の解明が進んでいます。また、MRIを用いた脳内物質移動の可視化技術の確立を目指した、神経イメージング分野の先端的研究を推進しています。
Professor Inhong Song's research lab specializes in environmental and water resources engineering, with a focus on sustainable water management, agricultural water quality, and ecological system modeling. The lab investigates subsurface irrigation systems to minimize microbial contamination in crops, develops advanced remote sensing and AI-based methods for rapid land cover and farmland boundary mapping, and applies hydraulic and water quality modeling to assess ecological habitat suitability and optimize streamflow for aquatic species. The lab integrates field experiments, computational modeling, and innovative data analysis techniques to address critical challenges in water safety, agricultural productivity, and environmental conservation.
Professor Chang Yun Son's research lab specializes in computational and molecular-level studies of ion transport, electrostatic interactions, and interfacial phenomena in complex electrolyte systems, with a focus on energy storage materials such as solid-state and high-concentration liquid electrolytes, ionic liquids, and charged block copolymers. The lab develops advanced atomistic and polarizable molecular dynamics models to understand and predict ion dynamics, phase behavior, and interfacial structuring in confined and heterogeneous environments relevant to batteries and bioelectrochemical systems. A key emphasis is placed on bridging simulation methodologies with experimental validation to guide the design of next-generation electrolytes with enhanced ionic conductivity and stability.
Professor Sunjai Kim's research lab specializes in digital dentistry, implant dentistry, and prosthodontic biomaterials. The lab focuses on improving the accuracy and clinical outcomes of dental impression techniques, including conventional and intraoral digital scanning, as well as optimizing implant design and abutment surface cleanliness to enhance long-term biologic and mechanical stability. Research also explores the impact of implant surface topography and neck morphology on peri-implant bone preservation and soft tissue integration.
東地学教授の研究室は、マイクロフルイディクスと紙基盤アナリシス技術を応用した、簡便で迅速かつ高感度な分析手法の開発を主眼としています。特に、微小なチャネル内で連続的・連携的に化学反応や抽出を実現する「連続-flow化学プロセッシング（CFCP）」や、ポリジメチルシロキーン（PDMS）を用いた画期的なμPAD（マイクロフルイディクス紙基盤分析デバイス）の開発が特徴です。環境・食品・医療分野の現地迅速モニタリングを可能にする、コスト効率に優れた分析技術の実用化を目指しています。
Professor Seonguk Seo's research lab specializes in advancing robust and fair machine learning through innovative deep learning techniques. The lab focuses on domain generalization, federated learning, and bias mitigation—particularly in scenarios with limited or no supervision—by developing novel normalization strategies, contrastive learning frameworks, and information-theoretic bias measurement. A key emphasis is placed on improving model generalization, fairness, and uncertainty calibration in real-world, data-heterogeneous environments.
Professor Kwangkeun Yi's research lab specializes in program analysis and verification, with a focus on developing automated, semantics-based techniques for analyzing complex software systems. The lab pioneers the design and implementation of program analyzer generators, such as system Z, to enable scalable and precise interprocedural analysis across diverse programming languages. Their work emphasizes formal methods, static analysis, and program transformation, aiming to improve software reliability and security through rigorous static reasoning. The lab also explores foundational aspects of type systems and program semantics to support advanced static analysis and verification tools.
Professor Ungyu Paik's research lab specializes in the design and synthesis of advanced nanomaterials for sustainable energy applications, with a strong focus on energy storage and conversion technologies. The lab pioneers innovative nanostructures such as yolk–shell, core–shell, and hollow architectures derived from metal-organic frameworks and other templates to enhance electrochemical performance. Key research directions include developing high-performance anode materials for sodium- and lithium-ion batteries, as well as creating efficient, durable electrocatalysts for hydrogen evolution and water splitting through phase boundary engineering and composition control. The lab emphasizes rational materials design to achieve superior electrochemical stability, high capacity, and low overpotential in energy devices.
本研究室は、腎疾患の進行メカニズムの解明に焦点を当てており、特に腎小管間質における慢性低酸素状態が末期腎疾患に至る核心的な要因であると仮説を立てています。特に、タンパク尿に伴う補因子の濾過と腎小管細胞への損傷、ならびにC5b-9によるpodocyte障害が、腎間質線維化と低酸素状態を悪化させるメカニズムを解明しています。また、HIF-1の活性化を促す化合物（例：コバルト）が腎障害に与える保護的効果についても、実験的モデルを用いて評価しています。
