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 Katsuya Iijima's research lab focuses on the interplay between aging, metabolic health, and chronic disease prevention, with a particular emphasis on sarcopenia, oral frailty, and cardiovascular risk factors in older adults. The lab investigates early detection methods for age-related conditions using accessible clinical markers and explores the biological mechanisms underlying polyphenol-mediated health benefits, especially in vascular smooth muscle cells. Their work promotes a paradigm shift from disease-centered to preventive, support-oriented healthcare systems tailored for aging populations.
Professor Yuta Saito's research lab specializes in machine learning for recommender systems, with a strong focus on addressing data bias and fairness in real-world recommendation scenarios. The lab investigates off-policy evaluation and learning using counterfactual inference, particularly leveraging propensity scoring and inverse propensity weighting to correct for selection bias in implicit feedback and post-click conversion data. A central theme is developing unbiased and robust methods for offline evaluation and policy learning, especially when feedback is missing-not-at-random or subject to exposure bias. The lab also explores fairness in rankings, challenging conventional assumptions about the relationship between item exposure and relevance.
Professor Kazuki Shimizu's research lab specializes in advanced acoustic imaging and bio-polymer synthesis, with a focus on innovative optical techniques for real-time sound field visualization and sustainable biopolymer production. The lab develops cutting-edge digital holography methods to capture high-speed sound fields, enabling precise analysis of acoustic phenomena. Simultaneously, it investigates microbial production of biodegradable polymers like poly-γ-glutamate, exploring environmental and biochemical factors that influence yield and stereochemistry. These interdisciplinary efforts bridge acoustics, materials science, and synthetic biology.
Professor Young Hoon Roh's research lab specializes in the development of advanced nucleic acid-based nanomaterials for biomedical applications, with a focus on DNA and RNA nanotechnology. The lab pioneers innovative strategies to engineer DNA and RNA into functional polymeric structures—such as DNA microsponges, DNAsomes, and multi-component RNAi delivery systems—enabling precise control over size, charge, and molecular stoichiometry. Key research directions include stimuli-responsive drug delivery, co-delivery of therapeutic nucleic acids (e.g., siRNA, antisense ODNs), and the design of biomimetic nanostructures for enhanced targeting and efficacy in cancer therapy and gene regulation. The lab integrates enzymatic synthesis, self-assembly, and materials engineering to create multifunctional platforms for next-generation therapeutics.
Professor Min-Kyu Oh's research lab specializes in synthetic biology, metabolic engineering, and bio-sensing technologies, with a focus on optimizing microbial systems for sustainable bioproduction and environmental applications. The lab develops advanced bioprocesses using Escherichia coli and other microbes to enhance the production of valuable chemicals such as butyrate and ethanol through pathway engineering and enzyme optimization. It also pioneers innovative biosensor systems, including bioelectronic noses and multifunctional magnetic nanoparticles, for sensitive detection and inactivation of pathogens. The integration of systems biology, synthetic biology, and nanomaterials enables the lab to address challenges in bio-manufacturing and biomedical safety.
Professor Hyoung-Joon Jin's research lab specializes in the development of bio-inspired nanomaterials derived from natural proteins, particularly silk fibroin, for advanced applications in biomedicine and energy storage. The lab focuses on engineering silk-based materials with tailored mechanical, structural, and degradation properties through electrospinning, phase separation, and carbonization techniques. Key research directions include creating water-stable and rapidly degradable biomaterials for tissue engineering, designing high-performance carbon nanomaterials for supercapacitors and sodium-ion batteries, and exploring the electrochemical behavior of protein-derived carbon architectures. The lab integrates materials science, biomaterials engineering, and sustainable processing to develop functional materials from renewable resources.
Professor Nobuhiro Nishiyama's research lab specializes in the development of advanced polymeric nanocarriers for targeted cancer therapy, with a focus on polymer-metal complex micelles and dendrimer-based photosensitizers. The lab pioneers innovative drug delivery systems that leverage the self-assembly of block copolymers to achieve tumor-specific accumulation and controlled drug release, enhancing therapeutic efficacy while minimizing systemic toxicity. Key research directions include the design of stimuli-responsive micelles for platinum-based chemotherapeutics and the application of charged dendrimer porphyrins in photodynamic therapy for solid tumors. The lab bridges nanomedicine, polymer chemistry, and biomedical engineering to advance clinical translation of nanotherapeutics.
Professor Fusanori Nishimura's research lab focuses on the interplay between oral inflammation, systemic metabolic diseases, and regenerative medicine. The lab investigates how periodontal disease influences systemic conditions such as type 2 diabetes, obesity, and atherosclerosis, with a particular emphasis on pro-inflammatory cytokines like TNF-α and adipokines. A key research direction involves harnessing mesenchymal stem cell-derived exosomes—especially from gingival tissue—for cell-free therapeutic strategies in periodontitis and metabolic disorders. The lab also explores the role of immune cell modulation, such as M2 macrophage polarization, and the regenerative potential of periodontal ligament cells in tissue repair.
Professor Kyung Tae's research lab specializes in advanced minimally invasive and robotic surgical techniques for thyroid and head and neck cancers, with a strong focus on improving cosmetic outcomes and reducing surgical morbidity. The lab investigates innovative transoral, axillary, and postauricular approaches to endoscopic and robotic thyroidectomy, emphasizing patient selection, surgical safety, and long-term outcomes. Additionally, the lab explores the biological mechanisms of tumor progression, particularly angiogenesis and VEGF expression, in head and neck squamous cell carcinoma, contributing to prognostic and therapeutic insights. The integration of surgical innovation with molecular oncology defines the lab’s translational research approach.
Professor Hye-Kyung Jung's research lab focuses on gastrointestinal diseases, with a primary emphasis on the epidemiology, pathophysiology, and clinical management of gastroesophageal reflux disease (GERD) and *Helicobacter pylori* infection. The lab investigates ethnic and geographical variations in disease prevalence, explores the bidirectional relationship between GERD and sleep disturbances, and conducts nationwide studies on antibiotic resistance and treatment strategies for *H. pylori*. Additionally, the lab examines the potential links between functional gastrointestinal disorders such as irritable bowel syndrome (IBS) and structural conditions like colonic diverticulosis.
Professor Sehoon Park's research lab focuses on the intersection of nephrology, aging, and cardiovascular health, with a strong emphasis on identifying causal relationships between lifestyle factors, chronic diseases, and kidney function. The lab investigates the impact of sleep duration, tobacco use, atrial fibrillation, and acute kidney injury on renal outcomes, using both observational and genetic epidemiological approaches. A key research direction involves understanding the bidirectional relationships between kidney disease and systemic conditions such as aging phenotypes and cancer risk in pre-dialysis populations. The lab also contributes to clinical epidemiology through large-scale data analysis of renal replacement therapy in Korea.
Professor Ji Hoon Ahn's research lab focuses on the molecular mechanisms regulating flowering time and stress responses in plants, with a central emphasis on the FLOWERING LOCUS T (FT)/TERMINAL FLOWER 1 (TFL1) gene family. The lab investigates the functional diversity of FT-like and TFL1-like proteins, including BFT, MFT, and other homologs, to understand their roles in meristem identity, diurnal regulation, and environmental adaptation. Using genetic, molecular, and biochemical approaches, the lab explores how these regulators integrate photoperiodic and stress signals to control developmental transitions in Arabidopsis and related species.
Professor Andrew Chapman's research lab focuses on advancing carbon-neutral energy systems through innovative materials and technologies, with a strong emphasis on hydrogen energy systems, carbon capture, and sustainable energy transitions. The lab investigates the scientific and technical foundations for deploying hydrogen across key sectors such as power generation, transportation, and grid integration, particularly in the context of Japan and North America. Research spans from fundamental host-pathogen interactions in infectious diseases to large-scale energy system modeling, reflecting a dual commitment to both biomedical and environmental sustainability challenges. The lab also explores policy, economic, and technological pathways for achieving carbon neutrality, especially through hydrogen economy development and low-carbon energy deployment strategies.
Professor Hyun-Woo Rhee's research lab specializes in the development of innovative chemical probes and sensing technologies for real-time, subcellular resolution detection of biologically important molecules in living systems. The lab focuses on designing selective fluorescent and chemiluminescent sensors for key metabolites such as (p)ppGpp, flavins (e.g., FAD, FMN), and signaling molecules, enabling dynamic monitoring of cellular metabolism and signaling. A central theme is the application of proximity labeling strategies—particularly using engineered peroxidases like APEX—to map subcellular proteomes and interactomes with high spatial and temporal resolution, bridging the gap between live-cell imaging and mass spectrometry-based proteomics. The lab’s interdisciplinary approach integrates synthetic chemistry, chemical biology, and cell biology to address fundamental questions in cellular physiology and disease mechanisms.
Professor Seungjoo Haam's research lab specializes in the development of advanced nanomaterials and multifunctional platforms for biomedical applications, with a strong focus on cancer diagnostics and therapeutics. The lab integrates nanotechnology, materials science, and molecular biology to design stimuli-responsive nanocarriers, smart sensors, and targeted imaging agents for early cancer detection and precision therapy. Key research directions include the engineering of polymeric and hybrid nanomaterials for enhanced drug delivery, photothermal therapy, and exosome isolation, with particular emphasis on applications in epithelial and HER2-positive cancers. The lab also pioneers low-cost, point-of-care diagnostic tools suitable for resource-limited settings.
Professor Hyunjung Kim's research lab specializes in advanced materials and environmental biotechnology, focusing on the design of functional nanomaterials for energy storage and the environmental fate of pathogenic microorganisms. Her work spans pseudocapacitive materials like nanoscale MoO₂ for high-performance energy storage, and the mechanistic understanding of bacterial transport and adhesion in porous media, particularly Escherichia coli O157:H7. The lab integrates materials synthesis, surface characterization, and colloid and surface science to address challenges in sustainable energy and water safety. Key research directions include molecularly imprinted polymers for selective recognition and the role of extracellular polymeric substances in microbial surface properties and environmental behavior.
Professor Hi-Joon Park's research lab focuses on exploring the neurobiological mechanisms of acupuncture and moxibustion in neurological and gastrointestinal disorders, particularly Parkinson’s disease (PD). The lab investigates how acupuncture modulates the gut-brain axis, protects dopaminergic neurons, and influences protein expression and neurotransmitter systems in PD models. A central theme is the scientific validation of acupuncture sensations (Deqi) and the development of objective, blinded acupuncture methods to strengthen clinical research. The lab also examines the therapeutic potential of moxibustion across various conditions using evidence-based approaches.
Professor Toshifumi Inada's research lab focuses on ribosome biology and mRNA quality control mechanisms in eukaryotic cells, particularly in Saccharomyces cerevisiae. The lab investigates how defective mRNAs and aberrant translation products are recognized and eliminated through specialized surveillance pathways involving ribosome dissociation, ubiquitination, and targeted degradation by the proteasome and RNA decay machineries. Key research directions include the molecular mechanisms of nonstop mRNA decay, ribosome-associated quality control, and the role of ribosomal subunit dissociation in 18S non-functional rRNA decay. The lab also develops innovative methods for ribosome purification and analysis to study ribosome-associated factors and their regulatory roles in gene expression.
Professor Seung Bum Park's research lab specializes in the design and development of advanced functional materials for biomedical and biotechnological applications. The lab focuses on creating smart nanomaterials—such as silver-coated textiles, fluorescent bioprobes, and multifunctional magnetic nanoparticles—for targeted diagnostics, drug discovery, and imaging. Key research directions include the rational design of covalent inhibitors, fluorogenic probes for live-cell imaging, and high-throughput screening platforms to identify modulators of cellular processes like lipid droplet formation. The lab integrates synthetic chemistry, materials science, and cell biology to develop innovative tools for precision medicine and therapeutic discovery.
Professor Gyung-Min Choi's research lab specializes in ultrafast spin dynamics and opto-spintronics, focusing on the interplay between light, angular momentum, and magnetism in nanostructured materials. The lab investigates all-optical magnetic switching, optical spin-orbit torques, and transient spin transport using ultrafast laser spectroscopy and time-resolved magneto-optical techniques. Key research directions include the generation and detection of ultrafast spin currents, the role of spin-orbit coupling in non-magnetic and magnetic materials, and the dynamics of angular momentum transfer at interfaces and in ferrimagnetic systems. The lab combines advanced pump-probe experiments with theoretical modeling to uncover fundamental mechanisms in ultrafast magnetism and spintronics.
