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Research Themes
Three Core Areas
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Microfluidics & Organ-on-a-chip -
Biomanufacturing & Biomaterials -
Robotics & Computational Approaches
Microfluidics &
Organ-on-a-chip
Organ-on-a-chip
My research focuses on developing advanced microfluidic and organ-on-a-chip platforms to model complex biological systems, such as cancer and skin tissues. A key goal of my work is to streamline biological experiments and enable high-throughput operations by integrating microfluidics with organotypic models.
Microfluidics &
Organ-on-a-chip
Organ-on-a-chip
My research focuses on developing advanced microfluidic and organ-on-a-chip platforms to model complex biological systems, such as cancer and skin tissues. A key goal of my work is to streamline biological experiments and enable high-throughput operations by integrating microfluidics with organotypic models.
Biomaterials &
Biomanufacturing
Biomanufacturing
My research centers on the development of functional biomaterials for antibacterial applications and innovative biomanufacturing approaches to engineer complex tissues.
I pioneered the ReSCUE platform (Recoverable Spheroid-on-a-Chip with Unrestricted External Shapes), enabling the precise formation of tissues, organoids, and spheroids with customizable shapes.
I pioneered the ReSCUE platform (Recoverable Spheroid-on-a-Chip with Unrestricted External Shapes), enabling the precise formation of tissues, organoids, and spheroids with customizable shapes.
Biomanufacturing & Biomaterials
My research centers on the development of functional biomaterials for antibacterial applications and innovative biomanufacturing approaches to engineer complex tissues.
I pioneered the ReSCUE platform (Recoverable Spheroid-on-a-Chip with Unrestricted External Shapes), enabling the precise formation of tissues, organoids, and spheroids with customizable shapes.
I pioneered the ReSCUE platform (Recoverable Spheroid-on-a-Chip with Unrestricted External Shapes), enabling the precise formation of tissues, organoids, and spheroids with customizable shapes.
Robotics &
Computational Approaches
Computational Approaches
With my background in mechatronics, I have been drawn to automating experimental processes.
A key project was the development of "RoboWorm," a living soft microrobot (C. elegans) controlled through a closed-loop optogenetic system and patterned light illumination.
I also developed a self-driving lab that integrated microfluidics with machine learning to autonomously synthesize metal nanoparticles, optimizing the real-time process.
A key project was the development of "RoboWorm," a living soft microrobot (C. elegans) controlled through a closed-loop optogenetic system and patterned light illumination.
I also developed a self-driving lab that integrated microfluidics with machine learning to autonomously synthesize metal nanoparticles, optimizing the real-time process.
Robotics & Computational Approaches
With my background in mechatronics, I have been drawn to automating experimental processes.
A key project was the development of "RoboWorm," a living soft microrobot (C. elegans) controlled through a closed-loop optogenetic system and patterned light illumination.
I also developed a self-driving lab that integrated microfluidics with machine learning to autonomously synthesize metal nanoparticles, optimizing the process in real time.
A key project was the development of "RoboWorm," a living soft microrobot (C. elegans) controlled through a closed-loop optogenetic system and patterned light illumination.
I also developed a self-driving lab that integrated microfluidics with machine learning to autonomously synthesize metal nanoparticles, optimizing the process in real time.