
Ph.D. candidate in Precision Engineering specializing in MEMS and microfluidic systems. Proven expertise in photolithography, FEM simulation, and process optimization, evidenced by a high-impact publication in Materials Horizons and oral presentations at MicroTAS. Trilingual professional committed to leveraging advanced engineering expertise to drive innovation within a global environment.
Designed and fabricated a novel microfluidic manipulation platform using photolithography and MEMS processes, enabling precise control of nano/micro-materials via vibration-induced flow.
Conducted FEM numerical simulations to quantify the impact of vibration frequency on flow velocity, optimizing device geometry and increasing experimental efficiency. Achieving high reproducibility in micro-sample manipulation.
Published research findings in the high-impact journal Materials Horizons and delivered multiple oral presentations at premier international conferences, including MicroTAS, establishing a novel methodology for active fluid control.
Excellent communication