One goal for any budding researcher is to see their work have a tangible public impact. But, with endless hours spent in a lab or hunched over a computer, there are times where research can feel abstract or removed from reality. Neuroscience, in particular, faces this stereotype. True, many (including myself) believe that neuroscience holds the key to understanding our conscience and, by extension, our modern predicament. But the question remains: where can an aspiring neuroscientist find the life-altering research they seek?
Ironically, the answer might just lie in reality-altering substances. From neuroscience to public policy, psychedelics is a budding topic across many different fields of research. While Princeton itself is yet to enter the field, the Princeton Science of Psychedelics Club (PSPC) serves as the hub for all students interested in this emerging field. I sat down with PSPC and senior Neuroscience Major President Camilla Strauss to talk about how students interested in psychedelics research could learn more.
Shannon Heh ’23 is currently Co-President of TigerApps, a member of KoKoPops dance team, and a member of Colonial Club
At Princeton, B.S.E.* computer science students are required to complete at least one semester of independent work (IW) during their junior or senior year. Students may either take an IW seminar, where a small group of students work on larger projects under a given theme, or a one-on-one IW, where students work and meet with their advisers independently.
Seminars had weekly meetings and provided more structure for students than a typical one-on-one project would; students were asked to choose their project ideas early and received valuable feedback through presenting and having their ideas workshopped by their peers in the seminar.
I met with Shannon Heh ‘23, a senior in the Computer Science department, to discuss her experience in an independent work seminar. Spring of her junior year, Shannon took COS IW 09: You Be the Prof, advised by Professor David Walker. Students were to produce a web-based platform, app, or tool to aid in teaching a particular topic, skill, or concept.
Have you ever wanted to learn how to use Photoshop? How to write code in multiple programming languages? How to use Excel? InDesign? Adobe Illustrator?
This semester, as part of my Urban Studies Certificate, I’m taking ARC 205, an interdisciplinary architectural design studio. Like most studio classes, we meet for six hours a week to develop our drawing, design, and analysis skills. Each week our instructors present us with a new drawing assignment designed to improve our architectural analysis skills. Pretty much everything we’re learning in this class is totally new to me. I’ve never really drawn – aside from doodles on my notes – and most of our assignments are far outside of my comfort zone. There hasn’t yet been a week when I’ve felt confident about my work, but in the past week, I’ve discovered a resource that might change that.
Reilly Bova ’20 is a Bachelor of Science and Engineering (B.S.E) Computer Science (COS) major with a strong interest in Physics. He spent this past summer conducting research in Princeton’s Physics department. His work included the visualization of deep universe galaxy clusters.
Reilly took data on some of the oldest and farthest discovered galaxies (several billion light-years away) and mapped them onto a computational model of the observable universe. He also added to the visualization extremely precise maps of the Cosmic Microwave Background (CMB), which is radiation from about 380,000 years after the Big Bang. Right after the Big Bang, the universe was so hot that nothing—not even photons—could travel unimpeded, which rendered the universe opaque. Around year 380,000, the universe had cooled enough that neutral atoms could form, rendering it transparent (i.e., photons could now travel through it) and releasing an enormous amount of energy which we now call the CMB. This Cosmic Microwave Background has been traveling through the universe for billions of years. As the universe expands, the wavelength of the CMB radiation lengthens (i.e., “redshifts”). We can generate a map of what the universe looked like very early in its life by measuring these redshifts.
I recently had the exciting opportunity to interview Reilly and find out more about his research experience.
In our spring series, Senior Theses: A Celebration, we take a moment in the interlude between thesis deadlines and graduation to appreciate the diverse, personal, and impactful work of seniors’ capstone research projects.
Xuewei Ouyang is a senior in the Computer Science Department. For her thesis, she combined her passion for dance and her knowledge of coding to create an app called, ChoreoSpot. Here’s what she had to say about her work:
What is your thesis about?
In short, my thesis is about creating an app that takes a rehearsal video and, within various frames of the video, spots errors on the dancers’ bodies in comparison to the choreographer’s.