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 Huihui Zhu's research lab specializes in the development of solution-processed semiconductor materials, with a primary focus on metal halide perovskites and metal oxide semiconductors for next-generation optoelectronic and electronic devices. The lab pioneers low-temperature, printable thin-film transistor (TFT) technologies, emphasizing lead-free, stable, and high-performance p-type and ambipolar perovskite-based TFTs for flexible and wearable electronics. Key research directions include defect passivation, grain boundary engineering, halide anion doping, and solvent engineering to enhance mobility, reduce hysteresis, and improve device reliability.
Professor Jeong Hoon Yang's research lab specializes in critical care and cardiovascular medicine, with a primary focus on understanding and improving outcomes in patients with severe circulatory failure. The lab investigates the pathophysiology of heart failure with preserved ejection fraction (HFpEF), particularly coronary microvascular dysfunction and its impact on diastolic function and prognosis. A significant portion of the research is dedicated to evaluating the role and timing of mechanical circulatory support, including ECMO and extracorporeal cardiopulmonary resuscitation (ECPR), in patients with refractory shock and cardiac arrest. The lab emphasizes patient selection, prognostic factors, and the integration of hemodynamic and clinical markers to guide life-saving interventions.
Professor Yei Hwan Jung's research lab specializes in the development of biocompatible, flexible, and biodegradable electronic systems for advanced biomedical applications. The lab focuses on creating next-generation implantable and wearable devices that mimic biological functions, including artificial sensory systems, haptic interfaces, and real-time biosensors for stress hormones like cortisol. A key research direction involves designing minimally invasive, injectable electronics for precise targeting of deep-tissue organs, enabling long-term monitoring and therapy with reduced physical burden. The lab also pioneers innovative microfabrication techniques for creating complex 3D structures in ultrathin, biocompatible materials to support regenerative approaches in retinal repair.
Professor Yunfeng Liang's research lab specializes in computational materials science and molecular simulation, focusing on carbon dioxide capture and storage (CCS) in geological formations, particularly in shale and silicate minerals. The lab investigates nanoscale transport, adsorption, and phase behavior of CO₂ and CH₄ in complex nanoporous systems such as kerogen and silica polymorphs, using advanced molecular dynamics and ab initio methods. A key focus is developing accurate interatomic potentials to model structural transitions, compressibility, and vibrational spectroscopy in materials like SiO₂ under extreme conditions. The work bridges fundamental atomic-scale phenomena with practical applications in carbon sequestration and energy materials.
Professor Zhendong Liu's research lab specializes in the development of advanced synthetic methodologies for crystalline microporous materials, with a focus on accelerating and continuous-flow synthesis techniques. The lab pioneers rapid, energy-efficient processes—such as continuous flow reactors and fast heating systems—to overcome the traditional limitations of slow hydrothermal crystallization. Key research directions include the design of bifunctional zeolite-based catalysts, the synthesis of nanosized zeolites with tunable dimensions, and the integration of seed-assisted methods with continuous processing for scalable production. The lab’s work bridges fundamental materials chemistry with industrial applications in catalysis and separation technologies.
Professor Naveed Ahmed Azam's research lab specializes in cryptography and computational security, with a focus on developing lightweight, high-performance cryptographic primitives for resource-constrained environments. The lab explores elliptic curve-based constructions for secure S-box generation and image encryption, emphasizing efficiency, strong cryptographic properties, and resistance to modern computational attacks. Additionally, the lab applies computational methods to problems in computational molecular biology, particularly in inverse quantitative structure-activity relationship (QSAR/QSPR) analysis using machine learning and optimization techniques. The integration of mathematical structures like finite rings and elliptic curves with practical security applications defines the lab’s interdisciplinary approach.
Professor Hiromichi Tagawa's research lab specializes in theoretical astrophysics, focusing on the dynamical and electromagnetic signatures of compact object binaries in extreme environments. The lab investigates the formation and evolution of stellar-mass black holes and binary systems within active galactic nuclei (AGNs), particularly emphasizing gravitational wave sources, spin dynamics, and electromagnetic counterparts. Key research directions include the role of AGN disks in facilitating black hole mergers, feedback mechanisms such as jets and winds, and the multi-messenger signatures of hierarchical mergers and quasi-periodic eruptions. The lab integrates semi-analytical modeling with observational constraints from gravitational wave and electromagnetic surveys to probe the astrophysical origins of transient phenomena.
Professor Masahisa Katsuno's research lab focuses on the molecular mechanisms underlying neurodegenerative diseases, particularly spinal and bulbar muscular atrophy (SBMA), a hereditary motor neuron disorder caused by polyglutamine expansion in the androgen receptor. The lab investigates protein misfolding, axonal transport deficits, and the role of molecular chaperones such as heat-shock proteins in disease progression. Using transgenic animal models and clinical trials, the lab explores therapeutic strategies, including androgen deprivation and pharmacological induction of chaperone expression via agents like geranylgeranylacetone. Their work bridges basic neuroscience with translational medicine to develop disease-modifying therapies for SBMA and related polyglutamine disorders.
Professor Eishi Baba's research lab focuses on tumor immunology and the tumor microenvironment, with a particular emphasis on understanding the role of immune cell subsets, such as T cells and tertiary lymphoid structures (TLS), in cancer progression and response to immunotherapy. The lab investigates immune checkpoint molecules like PD-1, OX40, and LAG-3 as potential biomarkers and therapeutic targets, and explores mechanisms of intercellular communication, including exosome-mediated signaling and OX40L transfer between immune cells. Additionally, the lab develops innovative diagnostic tools, such as ELISA systems for exosomal HLA and liquid biopsy approaches using malignant ascites, to identify prognostic and predictive biomarkers in cancer.
Professor Alex Coad's research lab specializes in the empirical and theoretical analysis of firm dynamics, with a focus on firm growth, high-growth firms, and the co-evolution of key performance indicators such as sales, employment, profits, and R&D investment. The lab employs advanced econometric methods—particularly panel vector autoregressions and structural VAR models—to uncover dynamic relationships and causal structures in longitudinal firm-level data. Research themes include the asymmetric growth patterns of firms, the role of innovation and R&D in firm expansion, and the macroeconomic and industrial implications of high-growth entrepreneurship.
Professor Jisung Lee's research lab specializes in advanced materials development for sustainable energy technologies and functional materials processing. The lab focuses on designing high-performance anode materials for potassium-ion batteries, leveraging novel nitride and doped carbon architectures to achieve exceptional stability and kinetics. It also explores innovative surface engineering techniques, such as high-frequency induction hardening, to enhance the mechanical durability of structural materials. A key theme across the research is the rational design of materials at the atomic and microstructural levels to optimize electrochemical and mechanical performance.
Professor Zong-Hong Lin's research lab specializes in the development of advanced nanogenerators and nanosensors based on triboelectric and piezoelectric effects. The lab focuses on harvesting mechanical and electrostatic energy from environmental sources such as water drops, waves, and airflow, with applications in self-powered systems and real-time sensing. Key research directions include the design of flexible, transparent, and lead-free nanogenerators using materials like BaTiO₃ nanotubes and PDMS, as well as highly sensitive, low-cost sensors for detecting ions (e.g., Hg²⁺) and organic molecules (e.g., catechin). The lab emphasizes sustainable, scalable, and cost-effective fabrication for practical deployment in wearable electronics, environmental monitoring, and smart infrastructure.
Professor Taichi Ito's research lab specializes in stimuli-responsive biomaterials and smart drug delivery systems, focusing on molecularly engineered membranes and hydrogels that dynamically respond to specific ionic signals. The lab develops ion-gating membranes using stimuli-responsive polymers like NIPAM and ion-recognition elements such as crown ethers, enabling precise control over permeability and osmotic responses. A key research direction involves creating biocompatible, degradable hydrogels for medical applications, including hemostasis and anti-adhesion barriers, using hyaluronan and polyphosphate conjugates. The lab integrates principles of supramolecular chemistry, polymer physics, and biomedical engineering to design functional materials for tissue engineering and targeted therapy.
Professor Yoshihiko Hasegawa's research lab specializes in nonequilibrium statistical mechanics and quantum thermodynamics, focusing on fundamental limits governing fluctuations and precision in stochastic and open quantum systems. The lab develops thermodynamic uncertainty relations that universally bound fluctuations of observables by entropy production or dynamical activity, applicable to both classical and quantum systems across arbitrary dynamics and measurement schemes. Their work bridges nonequilibrium thermodynamics, quantum estimation theory, and information theory, with applications to quantum devices, thermal machines, and complex stochastic processes.
Professor Tomoya Kujirai's research lab specializes in structural biology and chromatin dynamics, focusing on the molecular mechanisms underlying DNA sensing, transcription regulation, and chromatin remodeling. The lab employs advanced cryo-electron microscopy to visualize macromolecular complexes such as cGAS-nucleosome and RNA polymerase II-nucleosome complexes, revealing how enzymes and transcription machinery navigate and remodel nucleosomes during immune response and gene expression. A central theme is understanding how chromatin architecture, including histone variants like H3.Y and chaperones such as FACT, modulates genomic functions. The lab integrates structural, biochemical, and functional approaches to dissect the dynamic interplay between DNA, histones, and regulatory proteins in eukaryotic cells.
Professor Jae-Do Nam's research lab specializes in the development and characterization of advanced functional materials for sustainable energy, environmental protection, and high-performance composites. Key research directions include the design of graphene-based core-shell microspheres for electronic and biomedical applications, the kinetic modeling of polymer degradation and curing processes, and the creation of eco-friendly alternatives to toxic additives in rubber and composites. The lab also focuses on electromagnetic shielding materials, emphasizing absorption mechanisms and the accurate interpretation of shielding effectiveness to guide next-generation material design.
Professor Young Chul Jun's research lab specializes in nanophotonics and metamaterials, focusing on the design and engineering of tunable, reconfigurable optical and plasmonic devices. The lab explores strong light-matter interactions in hybrid nanostructures, including epsilon-near-zero materials, 2D and 3D photonic waveguides, and chiral metasurfaces, with applications in integrated optics, nanoscale light sources, and active infrared devices. A key research direction involves electrically tunable metamaterials and 4D-printed responsive photonic structures for dynamic control of light across visible to mid-infrared wavelengths. The lab combines theoretical modeling, nanofabrication, and experimental validation to advance next-generation photonic technologies.
Professor Zebing Mao's research lab specializes in advanced soft robotics, electrohydrodynamic (EHD) fluidic systems, and intelligent actuation technologies. The lab focuses on developing flexible, valveless, and noiseless EHD pumps for microfluidic applications, integrating machine learning for performance prediction and optimization. Key research directions include biomimetic soft actuators, self-oscillating polymer gels, and tensegrity structures with embedded multimodal sensing and deep learning for autonomous shape reconstruction. The lab emphasizes innovation in energy-efficient, compact, and adaptive fluidic systems for applications in biomedical devices, food safety, and dynamic environmental exploration.
Professor Qing Wang's research lab specializes in the development and characterization of advanced functional materials, particularly high-entropy oxides, transition metal oxides, and non-stoichiometric oxides, synthesized under extreme conditions such as high-pressure torsion (HPT). The lab focuses on tailoring the electronic structure, defect chemistry, and nanostructure of these materials to enhance their photocatalytic and electrochemical performance for renewable energy applications, including hydrogen production and supercapacitor technology. A key research direction involves manipulating bandgaps and oxygen vacancies to extend light absorption into the visible spectrum and improve charge separation efficiency.
Professor Young-Chang Joo's research lab specializes in advanced functional materials for energy and electronics applications, with a strong focus on oxide semiconductors, particularly hematite (α-Fe₂O₃), for photoelectrochemical water splitting. The lab investigates the fundamental roles of defects—especially oxygen vacancies—and their interactions with dopants to enhance charge transport and photoelectrochemical performance. It also explores the reliability and electromigration behavior of thin-film metal lines in flexible electronics, aiming to improve the mechanical and electrical stability of next-generation flexible devices. The lab combines advanced synthesis techniques, in situ characterization, and device-level testing to bridge materials design with practical performance.
