Current Position
PhD Student
Department of Mechanical Engineering, Chonnam National University, Gwangju, South Korea.
About
I am a PhD student in Mechanical Engineering at Chonnam National University, working on sensing-driven platforms for cardiac tissue engineering, in vitro disease modeling, and quantitative drug screening.
Research Focus
Cardiac Bioelectronics
Multimodal electromechanical sensing, engineered cardiac tissue monitoring, and translational BioMEMS platforms for cardiotoxicity analysis.
Education
Academic Training
PhD in Mechanical Engineering, Chonnam National University (2022-Present). B.S. in Mechanical Engineering, Wenzhou University (2018-2022).
Academic Links
Profiles & Records
Research Overview
My current work connects sensor engineering, tissue models, and translational screening systems.
01
BioMEMS Sensing Platforms
Designing flexible microsystems and MEMS-based sensor architectures for biological signal acquisition in soft tissue environments.
02
Engineered Cardiac Tissue Monitoring
Building integrated platforms to evaluate contraction, maturation, and tissue-level coupling in engineered cardiac constructs.
03
Multimodal Electromechanical Recording
Combining strain, electrical, and structural readouts to observe dynamic heart-tissue behavior in real time.
04
Drug Cardiotoxicity Evaluation
Translating cardiac microsystems into quantitative screening tools for safety assessment, long-term monitoring, and disease-model studies.
Featured Projects
Selected projects that represent my recent academic and engineering trajectory.
Hypoxia model
Biomimetic Cardiac Hypoxia Model and Electromechanical Evaluation Platform
Building a biomimetic hypoxic cardiac model with integrated sensing workflows for electromechanical analysis under disease-relevant conditions.
High-throughput screening
High-Throughput Drug Toxicity Screening Platform Based on 3D Cardiac Tissue
Developing a 3D cardiac tissue platform for parallelized pharmacological testing with integrated electromechanical readouts.
Graphene microenvironment
Regulatory Mechanisms of Graphene Conductive Microenvironments in Cardiomyocyte Electrophysiological Communication and Maturation
Investigating how graphene-based conductive microenvironments modulate cardiomyocyte communication, maturation, and functional electrophysiology.
Selected Publications
Representative papers highlighting my recent work in bioelectronic sensing, cardiac tissue platforms, and translational biomaterials.
- [1] Graphene SU-8 platform for enhanced cardiomyocyte maturation and intercellular communication in cardiac drug screening ACS Nano, 2024, 18(49): 33293-33309. Link
- [2] Harnessing native blueprints for designing bioinks to bioprint functional cardiac tissue iScience, 2025, 28(3). Link
- [3] Development of multifunctional PAA-alginate-carboxymethyl cellulose hydrogel-loaded fiber-reinforced biomimetic scaffolds for controlled release of curcumin International Journal of Biological Macromolecules, 2025, 301: 140449. Link
- [4] Air-Breakdown Triboelectric Nanogenerator Inspired by Transistor Architecture for Low-Force Human-Machine Interfaces Nano-Micro Letters, 2026, 18(1): 251. Link
Academic Highlights
A quick view of the full academic record documented across the dedicated archive pages.
Contact
For collaboration, discussion, or academic exchange, feel free to reach out through the channels below.