{"id":9886,"date":"2018-12-05T11:08:54","date_gmt":"2018-12-05T16:08:54","guid":{"rendered":"https:\/\/biology.mit.edu\/?page_id=9886"},"modified":"2024-05-20T17:22:05","modified_gmt":"2024-05-20T21:22:05","slug":"profile-anna-sappington","status":"publish","type":"page","link":"https:\/\/biology.mit.edu\/undergraduate\/why-biology\/undergraduate-testimonials\/profile-anna-sappington\/","title":{"rendered":"Profile: Anna Sappington"},"content":{"rendered":"
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When Anna Sappington was six years old, her parents gave her a black and white composition notebook. Together, they began jotting down observations to identify the patterns in their wooded backyard near the Chesapeake Bay. How would the harsh winters or the early springs affect the blooming trees? How many bluebirds nested each season and how many eggs would they lay? When would the cicada population cycle peak? Her father, the environmental scientist, taught her to sift through data to uncover the trends. Her mother, the journalist, gave her the words to describe her findings.<\/p>\n
But it wasn\u2019t until Sappington competed in the Intel International Science and Engineering Fair her junior year of high school that she probed one tiny niche of the natural world more keenly than she ever had before: the physiology of the water flea. Specifically, she investigated the developmental changes that these minute creatures experienced after being exposed to the antimicrobial compound triclosan, present in many soaps and toothpastes. She was surprised to learn that it required only a low concentration of triclosan (0.5 ppm) to cause developmental defects.<\/p>\n
She\u2019d been familiar with the concept of DNA since middle school, but her fellow science fair finalists were delving beyond their observations and into the letters of the genetic code. This gave her a new impetus: to understand how triclosan worked at the level of the genome and epigenome to engender the physical deformities she observed under the microscope. She just needed the proper tools, so she made some calls.<\/p>\n
Environmental geneticist and water flea aficionado John Colbourne took an interest, and invited her to his lab at University of Birmingham in the U.K. the following summer so she could learn basic lab techniques. Although her friends and classmates didn\u2019t quite get why she needed to travel to an entirely different country to study an organism they\u2019d never heard of, as she puts it, she had burning scientific questions that needed answers.<\/p>\n
\u201cThat was the experience that really turned me on to genomics,\u201d says Sappington, now a senior and 6-7 (Computer Science and Molecular Biology) major. \u201cI was finally getting the tools to dig through large amounts of data, using code to find patterns and meaning. I wanted to keep asking \u2018why?\u2019 and \u2018how?\u2019 all the way down to the molecular level.\u201d<\/p>\n
The summer before her freshman year of college, Sappington asked these questions in humans for the time as an intern at the National Human Genome Research Institute (NHGRI). There, she helped create a computational pipeline to identify the genomic changes associated with heightened risk of cardiovascular disease.<\/p>\n
She enrolled at MIT the following fall, because she wanted to be around people from every scientific subfield imaginable. When she arrived, the joint major in computer science and biology was still relatively new.<\/p>\n
\u201cWhile a few of the required classes did meld the two, many of them offered training in each separately,\u201d she says. \u201cThat approach really appealed to me because I was hoping to develop both skill sets independently. I wanted to learn code and write algorithms that could be applied to any field, and I also loved understanding the biological mechanisms behind different diseases and viruses.\u201d<\/p>\n