Summer Research Program

We host a paid 10-week research program designed to provide community college students a structured and mentored research experience. Students work in teams to solve a biological question using a microfluidic device. Our program pairs you with expert mentors from biosciences and microfluidics, guiding you through interdisciplinary teamwork. You will learn how to build your own microfludic device and use it to gather experience with experimental design and troubleshooting, data acquisition and analysis. In addition, you will participate in career development programing including workshops on how to communicate your science effectively, ensuring you're equipped with skills for success in any scientific endeavor. Social events with other interns and Stanford researchers will expose you to other research and help build your scientific network! At the end of the program, you will be able to celebrate and present your progress at a research symposium. 

2023 Summer Research Program Interns

Determining the Effect of Compression on Mutant C. elegans Through Long Term Imaging

Team Worms: Daisy, Evan and Raymond

Mentor: Lauren Cote, Feldman Lab

This project was a continuation of a BIOE301D project in which students designed and optimized worm traps to successfully immobilize L1 mutant C. elegans to aid in the visualization of their gut repair over multiple days. The interns designed, fabricated and tested these devices to confirm worms remained alive and to investigate whether or not the width of the traps (which led to various levels of compression) had an effect on the repair process. These devices are currently being used by the collaborators to continue with long-term imaging experiments.

High-Throughput Development of Next-Gen Resins for Water Purification

Team Beads: Hector, Drake and Manny

Mentors: Minsung Cho, Caroline Horn, Fordyce Lab

In this project, our interns were interested in using a microfluidic droplet generator to generate beads to selectively remove pollutants from wastewater. Since the composition of these beads required novel polymers that hadn’t been used to make beads before, they developed a systematic pipeline to narrow down the formulations that could be successful at creating beads on-chip. In addition, they redesigned the microfluidic devices to increase their device production by 400%. During the summer, they screened 38 novel formulations and found 3 that generated stable beads. The beads are currently being tested by their collaborators to assess their functionality.

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