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 Takafumi Ueno's research lab specializes in bioinorganic chemistry and bionanomaterials, focusing on the design and synthesis of artificial metalloenzymes and protein-templated nanomaterials. The lab develops functional hybrid systems by integrating metal complexes into protein scaffolds such as apo-ferritin and apo-myoglobin, enabling precise control over metal cluster formation, reactivity, and catalytic function. Key research directions include size-selective catalysis, photoactive CO-releasing systems, and the structural engineering of metal-binding sites for enhanced reactivity and substrate recognition. The lab combines crystallography, spectroscopy, and bioinorganic synthesis to understand and exploit metal-protein interactions at the molecular level.
Professor Hiroaki Onoe's research lab specializes in stimuli-responsive hydrogel systems, microfluidic fabrication, and bio-mimetic microdevices for biomedical applications. The lab focuses on developing advanced drug delivery systems using ultrasound-triggered hydrogel microbeads, 4D printing of dynamic hydrogel structures, and microfluidic platforms that emulate physiological environments such as blood vessels. Key research directions include the design of smart materials with tunable mechanical and responsive properties, controlled self-assembly of microstructures, and the integration of these systems for in vitro tissue engineering and real-time cell culture under dynamic conditions.
Professor Yoon-Mo Koo's research lab specializes in biocatalysis and sustainable chemical processes, with a focus on enzyme-mediated synthesis of high-value biobased products such as sugar fatty acid esters and rare sugars. The lab integrates experimental studies with molecular dynamics simulations to understand and optimize enzyme behavior in non-aqueous environments like ionic liquids and organic solvents. Key research directions include enhancing the efficiency and scalability of lipase-catalyzed reactions, developing novel solvent systems for improved substrate solubility, and applying advanced separation techniques such as simulated moving bed (SMB) chromatography for product purification. The lab also investigates the economic and environmental feasibility of carbon capture and storage technologies, particularly in industrial sectors like steel production.
Professor Yong Shin's research lab specializes in the development of innovative microfluidic and nanomaterial-based platforms for point-of-care molecular diagnostics and liquid biopsy applications. The lab focuses on advancing sensitive, rapid, and label-free detection of genetic and epigenetic biomarkers—such as single-point mutations, cell-free nucleic acids, and extracellular vesicles—using cutting-edge technologies like silicon microring sensors, SERS substrates, and magnetic nanoparticle composites. A central theme in the lab’s work is the design of non-chaotropic, high-efficiency nucleic acid capture systems and isothermal amplification techniques to improve clinical translation of molecular diagnostics.
Professor Seok Chung's research lab specializes in developing advanced microfluidic and 3D bioprosthetic platforms to model complex physiological microenvironments, particularly in cancer, angiogenesis, and islet biology. The lab focuses on integrating dynamic biochemical gradients, extracellular matrix scaffolds, and live-cell imaging to study cellular behaviors such as collective migration, sprouting angiogenesis, and metastatic niche formation at the single-cell level. By mimicking in vivo conditions like interstitial flow and stromal interactions, the lab aims to create more clinically relevant in vitro models for disease research and drug testing. Their work bridges tissue engineering, microfluidics, and systems biology to uncover mechanistic insights into disease progression and microenvironmental regulation.
Professor Gil-Ho Lee's research lab specializes in quantum nanoscience and 2D materials-based quantum devices, focusing on spintronics, superconductivity, and topological quantum phenomena. The lab explores van der Waals heterostructures, Josephson junctions, and spin-orbit torque effects to develop energy-efficient, gate-tunable quantum devices. Key research directions include macroscopic quantum tunneling, crossed Andreev reflection, and twistronics in 2D materials, with an emphasis on atomically precise interfaces and quantum coherence. The lab combines advanced fabrication techniques like mechanical exfoliation and microcleave-and-stack with advanced transport and spectroscopy measurements to probe fundamental quantum phenomena.
Professor Jin-Goo Park's research lab specializes in surface and interfacial phenomena in semiconductor manufacturing, with a focus on chemical mechanical polishing (CMP) processes, contamination control, and surface modification. The lab investigates the fundamental interactions between slurries, particles, and wafer materials—such as silicon, polysilicon, and metal films—under various chemical and electrokinetic conditions. Key research directions include the role of surface charge, zeta potential, and interfacial forces in determining polishing performance and defect formation, as well as the development of strategies to enhance surface cleanliness and planarization efficiency through chemical additives like H₂O₂ and benzotriazole (BTA).
Professor Sunho Jeong's research lab specializes in the development of advanced functional materials for next-generation electronic and energy devices, with a strong focus on solution-processed oxide semiconductors, conductive nanomaterials, and flexible electronics. The lab investigates low-temperature processing techniques for amorphous oxide semiconductors (AOS) such as IZO and ZTO, aiming to enhance thin-film transistor performance while maintaining compatibility with flexible plastic substrates. A key research direction involves surface engineering of metal nanoparticles—particularly copper—to suppress oxidation and enable high-conductivity, inkjet-printable electrodes. The lab also explores functional nanocomposites, including piezoelectric generators based on PZT-NH₂ nanoparticles, for energy harvesting applications.
Professor Suk-Ho Choi's research lab specializes in advanced optoelectronic materials and devices, focusing on hybrid heterostructures combining 2D materials, perovskites, and quantum dots for next-generation solar cells, photodetectors, and light-emitting devices. The lab explores fundamental mechanisms in carrier transport, interface engineering, and charge dynamics in nanostructured systems to enhance device performance and stability. Key research directions include the development of transparent and semitransparent photovoltaics, high-sensitivity photodetectors, and multifunctional devices such as solar cell-light emitting diodes (SOLEDs).
Professor Hirokazu Sugiyama's research lab specializes in sustainable chemical and bioprocess engineering, focusing on the integration of economic, environmental, health, and safety (EHS) considerations in early-stage process design. The lab develops advanced modeling and assessment methodologies—such as IDEF0-based activity modeling, system dynamics, and stochastic simulation—to support robust decision-making in complex manufacturing systems, particularly in biopharmaceuticals and stem cell cultivation. A central theme is the creation of dynamic, uncertainty-aware design spaces that account for variabilities across raw materials, cells, and operational parameters. The lab also explores molecular mechanisms underlying tumor suppression, linking cellular adhesion molecules to signaling pathway regulation.
Professor Alexander A. Vinogradov's research lab specializes in the chemical biology and synthetic biology of ribosomally synthesized and post-translationally modified peptides (RiPPs), with a focus on engineering enzymatic pathways for natural product biosynthesis. The lab develops innovative in vitro and in vivo platforms—such as the FIT-Laz system—for the high-throughput production and characterization of complex peptides, including thiopeptides and macrocyclic peptides. Key research directions include optimizing peptide stability and bioavailability through macrocyclization, noncanonical amino acids, and post-translational modification enzymes, while leveraging deep learning and high-throughput screening to decode substrate specificity and biosynthetic logic. The lab also pioneers methods for de novo sequencing of synthetic peptide libraries and explores chiral enzyme systems to expand the functional and structural diversity of therapeutic peptides.
Professor Koichi Ikuta's research lab specializes in hematopoiesis and lymphoid development, focusing on the molecular mechanisms governing hematopoietic stem cell maintenance, T-cell differentiation, and the role of key cytokines and receptors such as c-kit, steel factor, IL-7, and Fc epsilon receptor. The lab employs advanced techniques in molecular cloning, transgenic mouse models, and flow cytometry to dissect signaling pathways in early lymphoid progenitors and stromal microenvironments. A central theme is understanding how cytokine microenvironments in the thymus and bone marrow regulate lineage commitment and immune cell development, particularly in fetal versus adult hematopoiesis. The lab also investigates the genetic and functional characteristics of T-cell receptor genes in human T-cell malignancies, such as adult T-cell leukemia.
Professor Akitsu Hotta's research lab specializes in advanced genome editing technologies and stem cell biology, with a focus on developing safe and efficient methods for in vivo and in vitro genome editing using CRISPR-Cas9 and novel vector systems. The lab investigates viral and non-viral delivery systems—particularly AAV and piggyBac transposon vectors—for therapeutic gene transfer, with applications in monogenic disorders such as hemophilia A and muscular dystrophy. A central theme is optimizing genome editing efficiency in human induced pluripotent stem cells (iPSCs), including strategies for precise gene correction and knock-in using single-stranded oligodeoxynucleotides (ssODNs). The lab also explores the cellular mechanisms regulating Cas9 activity, aiming to enhance specificity and reduce off-target effects in regenerative medicine and gene therapy.
Professor Rui Nouchi's research lab focuses on non-pharmacological interventions to enhance cognitive functions and emotional well-being in older adults, particularly those with mild cognitive impairment (MCI) or dementia. The lab investigates the therapeutic potential of music-based interventions, cognitive training programs—such as processing speed training—and nutritional supplements like lutein and astaxanthin. Their work emphasizes practical, accessible, and person-centered approaches suitable for home, day care, and long-term care settings. The lab conducts rigorous clinical trials and systematic reviews to evaluate the efficacy and mechanisms of these interventions.
Professor Stephen Matthew Lyth's research lab focuses on the development and characterization of advanced carbon-based nanomaterials for sustainable energy applications. Key research directions include the design of non-precious metal electrocatalysts for oxygen reduction in fuel cells, machine learning-driven prediction of gas adsorption in porous carbons, and the application of nanocellulose and carbon foam as functional materials in energy conversion and storage. The lab emphasizes materials synthesis, electrochemical characterization, and data-driven approaches to optimize performance and understand structure-property relationships.
Professor Satoru Yamamoto's research lab specializes in computational materials science and soft matter physics, focusing on the dynamic behavior of complex fluids, vesicles, and fiber suspensions using advanced particle-based simulation methods. The lab develops and applies dissipative particle dynamics (DPD) and particle simulation methods (PSM) to study self-assembly, phase separation, and rheological properties in systems ranging from amphiphilic molecules to flexible fibers and epoxy resins. Key research directions include the formation and deformation of vesicles, hydrodynamic interactions in concentrated suspensions, and the molecular-scale dynamics of curing polymers at interfaces. The lab combines coarse-grained and atomistic simulations to bridge molecular-level mechanisms with macroscopic material behavior.
Professor Se-Bum Paik's research lab specializes in computational and systems neuroscience, focusing on understanding the neural mechanisms underlying visual perception, number sense, and cortical network dynamics. The lab employs computational modeling, deep neural networks, and advanced image analysis to investigate how brain circuits spontaneously generate functional maps—such as orientation and retinotopic maps—and how oscillatory activity shapes sensory processing. A key focus is on the emergence of abstract cognitive functions from intrinsic network dynamics, as well as developing automated tools for whole-brain neural mapping in mice.
Professor Young-Kook Lee's research lab specializes in the development and characterization of advanced high-strength steels, with a focus on medium Mn steels, Fe-Mn alloys, and martensitic stainless steels. The lab investigates phase transformations, microstructure evolution, and mechanical properties—particularly transformation-induced plasticity (TRIP) and damping capacity—under varying processing conditions such as annealing and heating rates. Key research directions include the control of retained austenite, martensite reversion mechanisms, and the role of defects and phase boundaries in enhancing material performance. The lab combines experimental techniques like dilatometry, XRD, and TEM to understand structure-property relationships at the microscale.
Professor Han-Sung Jung's research lab focuses on bioinspired materials and developmental biology, with a strong emphasis on understanding the molecular mechanisms underlying tissue and organ development—particularly in limb and mammary gland formation—through the interplay of key signaling pathways such as Wnt, FGF, and T-box genes. The lab also explores the application of natural micro- and nanostructures, such as those found in gecko skin, for biomimetic fabrication of functional surfaces in biomedical and everyday applications. Additionally, the lab investigates the role of chirality in biological systems and develops advanced nanomaterials, including graphene oxide-supported bimetallic nanoparticles, for combating antibiotic-resistant bacterial biofilms.
Professor Boyoung Park's research lab focuses on public health and translational biomedical research, with a strong emphasis on women's health, chronic disease prevention, and bioactive natural compounds. The lab investigates body image and obesity-related health disparities in Korean women across age groups, while also exploring anti-complement and anti-cancer properties of plant-derived compounds such as flavonoids and lignans. Additionally, the lab examines health behavior and screening patterns for diabetes-related complications, as well as mental health factors influencing suicide risk in family caregivers. These interdisciplinary efforts bridge epidemiology, pharmacology, and clinical health promotion.
