Research labs at Korea's QS Top 10 universities including SNU, KAIST, and Yonsei.
Professor Jong Min Kim's research lab specializes in translational biomedical engineering and clinical physiology, focusing on vascular hemodynamics, implantable biomaterials, and urological disorders related to benign prostatic hyperplasia. The lab investigates vascular access complications, including arterial thrombosis during cannulation, and explores innovative scaffold designs for bone regeneration using hydroxyapatite/alumina composites. Additionally, the lab examines the clinical implications of obesity on prostate health and explores novel xenotransplantation strategies for diabetes using porcine islets, with an emphasis on immunosuppressive safety and long-term graft survival.
Professor Guseong Choi's research lab specializes in advancing minimally invasive surgical techniques in living donor liver transplantation, with a strong focus on pure laparoscopic donor hepatectomy. The lab investigates surgical innovation, donor safety, and long-term graft outcomes, particularly in complex anatomical variants such as portal and bile duct variations. Key research directions include optimizing surgical techniques—like novel bile duct division methods—and improving patient outcomes through meticulous anatomical assessment and propensity score-matched analyses. The lab also contributes to the global transition from open to laparoscopic donor surgery, emphasizing clinical safety and oncological efficacy in hepatocellular carcinoma treatment.
Professor Hak Jong Lee's research lab specializes in advancing medical imaging and targeted cancer therapy, with a focus on improving the diagnosis and treatment of genitourinary cancers—particularly prostate and lung cancer. The lab integrates molecular imaging, ultrasound technology, and artificial intelligence to enhance the accuracy of cancer detection and to develop safer, more effective therapeutic strategies. Key research directions include the development of ultrasound contrast agents for molecular imaging, image-based classification systems using MRI, and innovative drug delivery systems such as pH-sensitive nanoparticles and immune-microbubble complexes. The lab also explores the application of artificial intelligence in interpreting medical imaging data to improve clinical decision-making.
Professor Nam Soo Koo's research lab specializes in critical care medicine and infectious diseases, with a primary focus on improving outcomes in severe infections and sepsis. The lab investigates biomarkers such as CRP, albumin, and RDW to predict mortality in critically ill patients, particularly those with Gram-negative bacteremia, *Stenotrophomonas maltophilia* bacteremia, and multidrug-resistant *Acinetobacter baumannii* infections. They also explore novel antimicrobial therapies and the impact of electrolyte imbalances—such as hypochloremia—on patient survival. Additionally, the lab conducts pharmacovigilance studies to assess antibiotic-related adverse drug reactions in hospitalized patients.
Professor Jae-Joon Park's research lab focuses on chronic inflammatory diseases, particularly inflammatory bowel disease (IBD) such as Crohn’s disease and ulcerative colitis, with an emphasis on disease management during pregnancy and long-term outcomes. The lab also investigates gastrointestinal neoplasia, including the risk of metachronous neoplasia in patients with advanced adenomas. In parallel, the lab explores millimeter-wave wireless communication systems, especially channel modeling and propagation characteristics in vehicular and urban environments at 28 and 38 GHz, supporting the development of 5G networks. The integration of clinical gastroenterology and advanced wireless communication research reflects a multidisciplinary approach to improving both health outcomes and next-generation communication technologies.
Professor Sung-eon Ryu's research lab specializes in structural biology and enzymology, focusing on the molecular mechanisms of redox regulation, oxygen sensing, and enzyme catalysis. The lab investigates key regulatory proteins such as HIF-1, FIH-1, thioredoxin superfamily members, and various hydrolases, using X-ray crystallography to reveal structural insights into their functions and interactions. A central theme is understanding how protein conformation, post-translational modifications, and electron transfer pathways govern cellular responses to stress, hypoxia, and redox imbalance. The lab also engages in rational drug design, particularly targeting enzymes like carboxypeptidase A with transition state analogues.
Professor Yunjeong Park's research lab focuses on the molecular mechanisms of bioactive compounds from traditional medicinal fungi and plants, particularly cordycepin and isoquinoline alkaloids, in inducing cancer cell death through apoptosis, autophagy, and cell cycle arrest. The lab investigates key signaling pathways such as caspases, MAPKs, and GSK-3β, with an emphasis on their therapeutic potential in oncology. Additionally, the lab explores sociocultural and migratory dynamics of Chinese communities in southern Africa, especially in South Africa and Lesotho, examining identity, race, class, and transnational belonging in post-apartheid and globalized contexts.
Professor Jukyung Park's research lab specializes in gastrointestinal oncology and pancreaticobiliary diseases, with a focus on improving diagnostic accuracy and prognostic prediction in pancreatic and biliary tract neoplasms. The lab investigates molecular markers such as MEN1, DAXX/ATRX, and epigenetic alterations like NPTX2 methylation to understand tumor behavior and guide personalized treatment. It also explores minimally invasive therapeutic options, including endoscopic ultrasound-guided ablation, for patients who are poor surgical candidates. The lab’s work bridges clinical oncology and molecular pathology to enhance patient outcomes in challenging conditions like pancreatic cancer and chronic pancreatitis.
Professor Byung Chan Lim's research lab specializes in clinical and molecular genetics, with a focus on identifying genetic causes of neurodevelopmental and neurological disorders, particularly early-onset epilepsies and movement disorders. The lab employs advanced genomic technologies such as whole-exome sequencing, targeted gene panel testing, and comparative genomic hybridization arrays to detect pathogenic variants, copy number variations, and mosaic mutations. Key research directions include the genetic diagnosis of rare diseases like Duchenne and Becker muscular dystrophies, pantothenate kinase-associated neurodegeneration (PKAN), and mitochondrial encephalopathies, with translational efforts toward improving diagnostic yield and therapeutic insights. The lab also contributes to international efforts in evaluating novel treatments, such as deep brain stimulation for PKAN.
Professor Bo Kyung Koo's research lab focuses on the pathophysiology of metabolic liver diseases, particularly non-alcoholic fatty liver disease (NAFLD), with an emphasis on genetic, metabolic, and musculoskeletal factors influencing disease progression. The lab investigates the roles of biomarkers such as GDF15 and genetic variants (e.g., PNPLA3, TM6SF2, KCNJ11) in NAFLD severity and insulin resistance. It also explores the interplay between sarcopenia, muscle strength, and liver fibrosis, highlighting the clinical implications of muscle health in metabolic and cardiovascular outcomes. The lab leverages large-scale national health surveys to identify population-level risk factors and outcomes in metabolic and liver diseases.
Professor Ji-Gil Ko's research lab specializes in wireless sensor networks, with a strong focus on enabling secure, reliable, and interoperable communication in resource-constrained environments. The lab's main research directions include the design and deployment of IP-based wireless sensor networks for healthcare and emergency response, the development of secure and privacy-preserving data collection protocols, and the integration of sensor networks with the Internet through standardized protocols such as 6LoWPAN and RPL. The lab also investigates mobility support in sensor networks and the performance implications of protocol interoperability across different implementations.
Professor Jongkeel Ko's research lab specializes in wireless sensor networks and Internet of Things (IoT) systems, with a strong focus on enabling secure, scalable, and interoperable communication in low-power, lossy networks. The lab's main research directions include the design and deployment of IP-based sensor networks, particularly through standards such as 6LoWPAN and RPL, and the development of real-time, privacy-preserving physiological monitoring systems for healthcare and emergency response. The lab also investigates mobility support in sensor networks and the performance implications of protocol interoperability across different implementations.
Professor Kyung Hwan Kim's research lab specializes in translational immunology and radiation oncology, focusing on identifying dynamic blood-based biomarkers to predict response to immune checkpoint inhibitors in solid tumors. The lab investigates the immunological mechanisms underlying immune-related adverse events and hyperprogression in patients receiving anti-PD-1 therapy, with a strong emphasis on peripheral immune cell profiling. Additionally, the lab explores radiation-induced cardiac toxicity, particularly atrial fibrillation following thoracic radiotherapy, and evaluates dosimetric predictors for clinical outcomes. Their work integrates clinical trials with systems immunology to improve precision oncology and treatment personalization.
Professor InSik Shin's research lab specializes in real-time systems, with a focus on compospositional scheduling frameworks that enable the systematic design and analysis of complex, component-based real-time systems. The lab develops formal models and algorithms for abstracting and composing timing requirements across hierarchical and distributed schedulers, particularly using periodic and bounded-delay resource models. Key research directions include hard real-time guarantees, multiprocessor scheduling (including cluster-based and global approaches), and interface synthesis for subsystems under resource sharing constraints. The lab also explores tradeoffs between CPU allocation and resource locking in fixed-priority scheduling environments.
Professor Jae-Min Jung's research lab focuses on interdisciplinary studies at the intersection of information technology, media behavior, and human-computer interaction. Key research directions include consumer behavior in digital environments, particularly regarding social media advertising, news consumption patterns, and e-book adoption. The lab also investigates system-level technologies such as malware detection in mobile platforms and hybrid storage architectures for emerging non-volatile memory. These efforts reflect a dual focus on socio-technical systems—ranging from user-level attitudes and digital well-being to low-level system design and security.
Professor Hye-Won Jeong's research lab focuses on understanding the immunological and virological mechanisms underlying infectious diseases, particularly SARS-CoV-2 infection and its long-term immune responses. The lab investigates host immune responses in COVID-19 patients using single-cell genomics and ex vivo functional assays, with an emphasis on T cell memory, inflammation, and viral persistence. Additionally, the lab explores public health policy impacts on disease transmission and contributes to global health research on adolescent pregnancy in low- and middle-income countries. Their work bridges basic immunology, clinical virology, and population health.
Professor Min Hye Kim's research lab focuses on the immunological and microbiological mechanisms underlying allergic and inflammatory diseases, particularly atopic dermatitis and severe asthma. The lab investigates the role of microbial components—especially bacterial extracellular vesicles (EVs)—in systemic and local immune responses, aiming to identify pathogenic and protective microbial signatures. Using integrative approaches combining metagenomics, serum biomarker detection, and clinical immunology, the lab seeks to develop novel diagnostic and therapeutic strategies for type 2 inflammation and drug-induced anaphylaxis.
Professor Geon-woo Shin's research lab focuses on epithelial cell biology, with a central emphasis on the molecular mechanisms underlying cell polarity, tight junction dynamics, and their roles in development, wound healing, and cancer. The lab integrates advanced organoid models, machine learning, and high-resolution imaging to study intratumoral heterogeneity and identify predictive biomarkers for personalized cancer therapy. Key research directions include the function of polarity proteins such as PATJ, PALS1, and Crumbs in epithelial organization and directional migration, as well as the application of 3D organoid systems to model human diseases and drug responses.
Professor Hyunkyung Kim's research lab specializes in atmospheric dynamics and biogeochemical processes, with a focus on understanding the mechanisms governing large-scale atmospheric circulations such as the Hadley cell and the role of baroclinic eddies in shaping climate systems. The lab also investigates molecular mechanisms in cellular signaling pathways, particularly the JAK2-STAT3 and RORα pathways, and their implications in cancer, inflammation, and circadian regulation. Additionally, the lab develops novel chemical probes for selective biomolecule detection, exemplified by fluorescent sensors for cysteine. These interdisciplinary efforts bridge physical climate science with molecular biology and analytical chemistry.
Professor Dongwook Go's research lab specializes in quantum transport phenomena involving orbital and spin degrees of freedom in quantum materials, with a focus on the orbital Hall effect, orbital Rashba effect, and spin-orbit coupling in centrosymmetric and non-centrosymmetric systems. The lab employs first-principles calculations and Wannier function-based methods to uncover the role of momentum-space orbital textures and chiral orbital currents, challenging the conventional view of orbital quenching. Their work reveals long-range orbital responses in ferromagnetic heterostructures and proposes new pathways for materials with strong spin and orbital Hall effects.
