Project Description
The objective of this research is to advance our lab’s development of a low-cost, high-precision infusion pump tailored for microfluidic droplet-generation applications. Alongside improving pump performance, the project aims to explore architecturally inspired microfluidic device geometries that enhance flow paths and droplet breakup. The methodology involves iterative refinement of the stepper-motor system, integration of calibration and feedback control, and testing the pump within newly designed channels. Using rapid prototyping and the student’s high-level expertise in laser ablation, precise microfluidic structures will be fabricated and optimized. This approach enables accurate channel dimensions essential for stable, repeatable droplet formation.
Tasks and Responsibilites
The student will design innovative microfluidic device geometries informed by architectural principles such as spatial organization, pattern repetition, and flow-guiding structural forms. These designs aim to improve droplet formation efficiency and control. With extensive experience in laser ablation, the student will fabricate microfluidic chips with highly accurate channel dimensions critical for consistent droplet generation. Responsibilities include refining the infusion pump setup, optimizing motion control, running performance tests with various device designs, and analyzing droplet characteristics. The student will document all iterations, compare results with existing designs in the lab, and contribute to both creative device development and technical system improvement.
Desired Qualifications
None listed.