Research
Interfacial Studies Lab
I spent 3 years doing research for Dr. Seo in the Interfacial Studies lab at BYU. After a school year of free research, I was hired to be a resreach assistant in the lab to contribute ~ 10 hours/week during the school year. I was involved in many projects through those years. Below is a brief synopsis of each.
Bicontinuous Emulsion-Jammed Gels (BIJELS)
One of my favorite endeavors was leading the BIJEL research team. First discovered as a theoretical material, decades of soft material sciences aided the first creation of a BIJEL in a lab. As an undergradute looking to gain experience, I was asked to validate the findings of Dr.'s Dongyu Cai, Paul Clegg, & associates in their paper 'Bijels formed by direct mixing', found here.
Two months of effort led to the validation of the aforementioned paper. To validate the structure of the gels, I learned Confocal Microscopy and sample dye selection for similar imaging methods. For the rest of my time with the research group, I was responsible for imaging and characterizing other students' samples. For more images, both the image on the home page and the animated gif in the banner above are samples prepared and imaged during my time in the group.
Molten Salts surface tension
In conjunction with students from Dr. Matthew Memmott's lab, I worked to develop and validate a molten salt surface tension quantification method. At the time of this project, I was also working full time as an intern at FM Global. This meant my efforts during the summer were on late nights and weekends. This research was important - I believe the future of nuclear energy to be Molten Salt Reactors. Given the role of molten salts as the heat transfer medium in the reactor, my research added to groundwork needed to bring nuclear energy into the next era.
Working with the salts presented its own challenges. The salt purity diminished with oxidation from air exposure; therefore, we had to conduct all experiments within a temperature-controlled Argon box. Additionally, the high melting point of salts meant we were unable to directly handle the specimen.
Our method initially called for photographs to be taken through the box window. This distorted the image and occupied the space immediately in front of the furnace - right where one would stand to conduct the experiment. Recognizing the need to adapt, we changed our experimental setup and pursued other options.
Atomic Force Microscopy
My last year in the research group was focused on a more complex facet of the BIJEL project. I began learning Atomic Force Microscopy (AFM) in early 2020 with the goal to collect data for later analysis. My first task was to collect thermal oscillations of the cantilever to develop a validation method for the cantilever's spring constant. I learned how to use an oscilloscope and Discrete Fourier Transforms to process signals into meaningful data. In this role, I became familiar with the Pandas library for Python, as DataFrames were a convenient way to use the 2.5 million data points generated by each trial.
Fabrication
While working through various projects, I aquired the ability to use Mills, Lathes, soldering irons, and 3D printers.