Smart Mechanical materials & Engineering Laboratory
(스마트 기계소재 및 엔지니어링 연구실 )
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Research Fields
Our primary research interests lie in the design and engineering of three-dimensional (3D) micro/nano-structures based on functional materials, with a particular emphasis on their applications to the functional devices such as flexible sensors, electro-mechanical energy harvesters, and advanced monitoring systems. Our work is characterized by the following thematic areas:
(ⅰ) Three-dimensional Structural Optimization Based on Functional Materials
(ⅱ) Electromechanical Devices
(ⅲ) Advanced and Multi-monitoring Systems
In pursuit of these goals, we employ various functional materials, including thermally expandable microsphere, shape memory polymer, carbon nanotube, to design easily deformable 3D micro/nano-structures. Our state-of-the-art methods enable high-throughput manufacturing, essential for scaling our innovations from the lab to real-world applications.
Smart Mechanical and Functional Materials
We are at the forefront of the design of easily deformable 3D micro/nano structures using various functional materials such as thermally expandable microspheres, shape memory polymers and carbon nanotubes. Using these advanced materials, we are developing innovative structures that dynamically change their mechanical properties to enhance the performance of functional sensing devices, electromechanical systems, and advanced monitoring technologies. This innovation paves the way for the next generation of smart sensing devices with superior adaptability and functionality.
Functional Sensing Devices
We are at the forefront of designing functional devices that can be used in a variety of industries, such as human-computer interaction, healthcare information monitoring, and structural safety monitoring through smart mechanical materials and innovative sensing technologies. By utilizing and optimizing various micro/nano structures, our sensing devices offered improved sensing performance in terms of sensitivity, detection range, and limit of detection.
Electromechanical Energy Harvesters
Our research is paving the way for energy harvesting from a variety of environmental sources. By using high-performance materials and optimizing device architecture, we aim to propose energy harvesters with superior efficiency and robustness, suitable for a wide range of applications.
Advanced Monitoring Systems
With a commitment to advancing multi-monitoring systems, we aim to develop innovative platforms that integrate various monitoring systems. These advanced systems enable real-time, high-precision monitoring across various applications, ensuring enhanced reliability, accuracy, and efficiency. By optimizing sensing performance and data integration, our approach paves the way for intelligent monitoring solutions that improve safety, functionality, and decision-making in critical environments.
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