Doyeon Bang

About

Doyeon Bang is a leading researcher in the field of biomedical microrobotics, with a focus on developing intelligent, miniaturized systems for targeted therapy and in vivo navigation. His most impactful work includes a 2022 study on multifunctional microrobots for chemoembolization therapy of liver cancer, which has garnered 134 citations. This research addresses critical challenges in biocompatibility, biodegradability, and real-time visualization using magnetic resonance imaging, marking a significant step toward clinical translation. Bang has also pioneered innovations in soft robotics, including a magnetically actuated miniature walking soft robot (65 citations) and high-performance artificial muscles using graphene nanoplatelet composites (47 citations). His contributions to 4D printing are notable, particularly a single-layer system using focused light for untethered microrobot applications (18 citations) and a programmed shape-morphing material (11 citations). Additionally, his work on optimizing magnetic navigation in blood vessels (14 citations) advances the precision of drug delivery systems. With a strong record of interdisciplinary research, Bang continues to push the boundaries of microrobot design, actuation, and imaging, positioning himself as a key figure in the next generation of medical microrobotics.

Research Focus

Key Achievements

Top Papers

1. 1
   Multifunctional microrobot with real-time visualization and magnetic resonance imaging for chemoembolization therapy of liver cancer

   134 citations · 2022
2. 2
   Magnetically actuated miniature walking soft robot based on chained magnetic microparticles-embedded elastomer

   65 citations · 2019
3. 3
   High-performance biocompatible nanobiocomposite artificial muscles based on ammonia-functionalized graphene nanoplatelets–cellulose acetate combined with PVDF

   47 citations · 2020
4. 4
   Single-Layer 4D Printing System Using Focused Light: A Tool for Untethered Microrobot Applications

   18 citations · 2021
5. 5
   Optimization of Field-Free Point Position, Gradient Field and Ferromagnetic Polymer Ratio for Enhanced Navigation of Magnetically Controlled Polymer-Based Microrobots in Blood Vessel

   14 citations · 2021
6. 6
   Programmed Shape-Morphing Material Using Single-Layer 4D Printing System

   11 citations · 2022

Key Collaborators

Contact & Links