Explore research labs at leading universities worldwide — research fields and key papers at a glance.
Professor Byoung Koun Min's research lab focuses on the design and mechanistic understanding of heterogeneous nanocatalysts for sustainable energy and chemical transformation. The lab specializes in gold-based and copper-based nanomaterials for low-temperature catalytic oxidation and electrochemical CO₂ reduction, with a strong emphasis on structure–activity relationships and dynamic morphological evolution during reactions. Key research directions include the development of stable, highly active nanocatalysts for green chemistry applications such as CO oxidation, C₂+ product formation from CO₂, and selective oxidation of biomass-derived intermediates like HMF to FDCA.
Professor Hee Cheul Choi's research lab specializes in the synthesis, characterization, and application of advanced two-dimensional nanomaterials and nanostructured hybrid systems. The lab focuses on catalyst-free and templated growth of carbon nanotubes, graphene, and transition metal dichalcogenides like MoS2, with precise control over morphology, thickness, and spatial patterning. Key research directions include the development of monodisperse nanomaterials for high-performance energy storage and electronic devices, leveraging chemical vapor deposition and molecular-level engineering. The lab also explores functional nanomaterials for lithium-ion batteries and field-effect transistors, emphasizing scalability and device integration.
Professor Dongmok Whang's research lab specializes in the development and application of two-dimensional materials and nanostructured semiconductors for next-generation electronic and energy conversion devices. The lab focuses on scalable fabrication techniques, defect engineering, and advanced heterostructure integration to enhance the electrical and optoelectronic properties of materials like MoS₂, graphene, and transition metal dichalcogenides. Key research directions include solution-based processing of 2D materials, high-performance flexible transparent electrodes, and CMOS-compatible nanowire transistors for advanced logic and sensing applications.
Professor Sang Min Won's research lab specializes in the development of advanced, biocompatible electronic systems for long-term interfacing with biological tissues, with a focus on neural and sensory interfaces. The lab pioneers flexible, ultrathin, and implantable devices that enable high-resolution recording and stimulation of neural activity, as well as multimodal sensing of mechanical and thermal stimuli. Key research directions include bioresorbable electronics, high-density neural interfaces, and microelectromechanical systems (MEMS) for biomedical applications.
Professor Seong-Jun Yoon's research lab specializes in the design and synthesis of functional organic semiconductors, with a focus on dicyanodistyrylbenzene-based materials that exhibit unique optoelectronic properties such as aggregation-induced enhanced emission (AIEE), mechanochromism, and liquid crystallinity. The lab investigates structure–property relationships through systematic molecular engineering, combining advanced structural characterization, photophysical studies, and computational modeling to understand molecular packing and electronic interactions in solid-state materials. Their work spans applications in organic photovoltaics, light-emitting devices, and stimuli-responsive materials, emphasizing morphology control via novel additives and supramolecular self-assembly.
Professor Hail Jung's research lab specializes in sustainable industrial innovation and environmental policy, focusing on the intersection of climate change, corporate strategy, and technological advancement. The lab investigates the impact of environmental regulations—such as Emission Trading Schemes—on firm-level performance, carbon productivity, and financial stability, with an emphasis on South Korea’s industrial context. It also explores the application of machine learning and advanced imaging technologies (e.g., industrial OCR systems) to enhance manufacturing efficiency and environmental monitoring. A central theme is the role of managerial perspectives and governance in driving green transformation and reducing systemic financial risks.
Professor The Ky Vo's research lab specializes in the design, synthesis, and application of metal-organic frameworks (MOFs) and other advanced porous materials, with a focus on developing scalable and efficient synthesis methods. The lab explores innovative reactor systems—such as continuous tubular reactors under microwave irradiation—to enable rapid, high-yield production of MOFs like UiO-66(Zr) while maintaining high crystallinity and porosity. Key research directions include materials for gas storage, separation, and catalysis, with an emphasis on sustainability and industrial scalability. The lab also investigates the structure-property relationships of MOFs to tailor their performance for environmental and energy-related applications.
Professor Hideaki Kato's research lab specializes in structural biology and membrane protein biochemistry, focusing on the molecular mechanisms of G-protein-coupled receptors (GPCRs) and microbial opsins. The lab employs advanced cryo-electron microscopy and X-ray crystallography to elucidate the structural dynamics of these proteins in complex with ligands and G proteins, aiming to understand signal transduction and ion selectivity. A key research direction involves engineering optogenetic tools—such as channelrhodopsins and K⁺-selective channels—through rational design and structural insights for applications in neuroscience and biotechnology. The lab also investigates tumor suppressor genes in human cancers, linking structural and functional analyses to disease mechanisms.
Professor Yasuo Yoshioka's research lab specializes in nanotoxicology and nanomedicine, focusing on the biological interactions of nanomaterials—particularly silica nanoparticles—and their immunomodulatory effects. The lab investigates how the surface properties and physicochemical characteristics of nanoparticles influence their protein corona formation, biodistribution, and toxicity in vivo, with an emphasis on safety assessment and design of safer nanomaterials. A key research direction involves developing advanced nanocarriers, such as lipid nanoparticles and CpG-adjuvanted formulations, to enhance vaccine efficacy and enable universal influenza vaccination strategies.
Professor Kazushi Kinbara's research lab specializes in the design and fabrication of intelligent molecular machines by integrating principles from supramolecular chemistry, materials science, and bioinspired systems. The lab focuses on controlling directional molecular motions through stimuli-responsive materials, particularly using photochromic units, metallophilic interactions, and tailored crystal engineering. Key research directions include the development of molecular motors, self-healing luminescent materials, and functional nanostructures with precise control over molecular conformation and reactivity. Their work bridges synthetic chemistry and nanotechnology to create dynamic systems with potential applications in smart materials and nanomedicine.
Professor Nobuyuki Tamaoki's research lab specializes in the design and application of photoresponsive liquid crystals and organogels, with a focus on cholesteric liquid crystals and azobenzene-based materials. The lab explores molecular engineering strategies to achieve thermal and photochemical control of liquid crystal mesophases, enabling applications in tunable photonic devices, rewritable color recording, and solid-state lasers. A key research direction involves developing glass-forming cholesteric liquid crystals (G-CLCs) that preserve tunable photonic band gaps through controlled thermal treatments, facilitating continuous wavelength tuning. The lab also investigates novel photoswitches, such as phenylazothiazole derivatives, for advanced optical and information technologies.
Professor Byoung-Ho Choi's research lab specializes in the mechanical behavior and durability of engineering polymers and metallic materials, with a focus on fatigue crack growth, environmental stress cracking, and fracture mechanics. The lab investigates the effects of processing parameters, material cleanliness, and microstructural features on the fatigue life and failure resistance of high-density polyethylene, aluminum alloys, and polymer composites. Using advanced characterization techniques and fracture mechanism maps, the lab aims to develop predictive models for material performance under service conditions.
Professor Minho Kim's research lab specializes in the design and development of advanced electrocatalysts and functional materials for sustainable energy conversion and storage. The lab focuses on understanding and optimizing electrochemical reactions such as the oxygen evolution reaction (OER), glycerol electrochemical oxidation, and CO2 reduction, using a combination of experimental synthesis, in situ characterization, and first-principles theoretical calculations. Key research directions include the rational design of single-atom and layered double hydroxide catalysts, the role of dopants and interfacial engineering in enhancing catalytic activity and stability, and the accurate modeling of van der Waals interactions in complex materials using DFT with dispersion corrections.
Professor Kyungkon Kim's research lab specializes in the development of advanced organic semiconductors and nanostructured materials for next-generation optoelectronic devices. The lab focuses on designing and synthesizing novel polymer and fullerene-based materials for high-efficiency organic photovoltaics (OPVs), with particular emphasis on enhancing power conversion efficiency through molecular engineering, nanoscale morphology control, and strategic doping. Key research directions include the fabrication of semitransparent and colorful OPVs using color filter integration, the synthesis of conjugated polymers with tailored optoelectronic properties, and the creation of nanostructured carbon-based materials via templated CVD and carbonization. The lab also explores charge transport mechanisms and interfacial engineering to optimize device performance.
Professor Liming Shu's research lab specializes in biomechanics and bioengineering, focusing on the development and validation of subject-specific computational models that integrate finite element and musculoskeletal systems to study lower limb dynamics after orthopedic implants such as total knee replacements. The lab also investigates the thermal and mechanical effects of orthopedic surgical procedures, including drilling and sawing, to minimize tissue damage and improve surgical outcomes. Additionally, the lab explores the metabolic activation of carcinogenic nitrosamines by cytochrome P450 enzymes, contributing to toxicology and drug metabolism research. These interdisciplinary efforts bridge engineering, medicine, and molecular biology to enhance patient safety and surgical precision.
Professor Yoshihiro Nishimoto's research lab specializes in the development of novel, selective, and sustainable catalytic transformations in organic synthesis. The lab focuses on the innovative use of earth-abundant and low-toxicity metal catalysts—particularly indium and bismuth halides—enabling mild, selective, and functional group-tolerant reactions. Key research directions include C–H and C–X bond functionalization, allylation and alkylation reactions, and the synthesis of complex organic molecules through transition-metal-catalyzed or photoredox-mediated processes. The lab also explores natural product synthesis and bioactive compound discovery, exemplified by the isolation of chitinase-inhibiting allosamidins from microbial sources.
Professor Akihiro Takahashi's research lab specializes in bioinorganic chemistry and soil mechanics, focusing on the electronic structure and reactivity of high-valent iron-oxo porphyrin complexes—key intermediates in heme enzyme catalysis. The lab investigates how axial ligands modulate the thermodynamic and electrochemical properties of these reactive species, using advanced spectroscopic and electrochemical techniques. In parallel, the lab explores seepage-induced internal erosion in gap-graded soils, examining microstructural instability and its impact on undrained mechanical behavior under variable hydraulic conditions.
Professor Sherif Rashad's research lab focuses on the intersection of hemodynamics, molecular biology, and neurovascular disease, with a strong emphasis on intracranial aneurysms and ischemic stroke. The lab investigates hemodynamic forces in cerebral aneurysms using computational fluid dynamics to understand rupture mechanisms, while also exploring the role of tRNA modifications and stress-induced non-coding RNAs—such as tiRNAs—in neuronal cell fate and vulnerability. A key direction involves identifying mechano-responsive microRNAs and metabolic pathways underlying selective neuronal death after global ischemia. The lab integrates computational modeling, molecular biology, and metabolomics to uncover novel therapeutic targets for stroke and cerebrovascular disorders.
Professor Osami Shoji's research lab specializes in bioinorganic chemistry and enzyme engineering, focusing on the design and manipulation of cytochrome P450 enzymes for selective and efficient catalysis. The lab pioneers innovative strategies—such as using decoy molecules and substrate engineering—to redirect P450s for non-natural reactions, including the direct hydroxylation of benzene to phenol and H₂O₂-dependent monooxygenation. They also explore supramolecular coordination assemblies, particularly porphyrin-based architectures, using metal-ligand interactions and covalent reinforcement for stable, well-ordered nanostructures on surfaces. Their work bridges synthetic biology, catalysis, and materials science to develop sustainable biocatalysts and functional nanostructures.
Professor Daisuke Takahashi's research lab specializes in the development of innovative synthetic methodologies in organic and peptide chemistry, with a focus on efficient and scalable peptide synthesis using novel protecting group strategies and solvent-based isolation techniques. The lab also investigates the molecular mechanisms underlying innate immune responses in insects, particularly the role of pattern recognition proteins and serine protease cascades in pathogen detection. Additionally, the lab explores the stereoselective synthesis of complex carbohydrates and the physical properties of quantum materials, such as rare-earth intermetallic compounds near absolute zero. These interdisciplinary efforts bridge synthetic chemistry, biochemistry, and materials science to address challenges in drug discovery, glycobiology, and quantum phenomena.
