Hannah Anderson
About Hannah Anderson
Hannah Anderson is an Undergraduate Research Assistant at Vanderbilt University, focusing on optimizing Gas Electron Multiplier Detectors for the sPhenix experiment.
Current Roles at Vanderbilt University
Hannah Anderson currently holds the position of Undergraduate Research Assistant at Vanderbilt University. In her role, she focuses on researching and optimizing Gas Electron Multiplier (GEM) detectors for the sPhenix experiment at the Relativistic Heavy Ion Collider in New York. She conducts three-dimensional simulations of GEM detectors and models outputs using ROOT and Garfield. Additionally, she tests GEM detector setups using Iron 55 radiation to analyze gain versus positive ion backflow, aiming to optimize detector performance. Her research is conducted under the guidance of Dr. Victoria Greene and Dr. Sourav Tarafdar.
Role in The SyBBURE Searle Undergraduate Research Program
In addition to her work at Vanderbilt University, Hannah Anderson is involved as an Undergraduate Researcher in The SyBBURE Searle Undergraduate Research Program in Nashville, Tennessee. This role supports her engagement in multidisciplinary research and contributes to her development as a budding scientist. The program is known for fostering innovation and providing a rich environment for students to explore unique research questions.
Education and Academic Background
Hannah Anderson pursued her higher education at Vanderbilt University, where she studied Mathematics and Physics. She completed her Bachelor's degree from 2018 to 2022. Prior to her time at Vanderbilt, she attended Indian Rocks Christian School, achieving her High School Diploma from 2014 to 2018. Her academic background has provided a strong foundation in analytical and scientific skills crucial for her research roles.
Research Focus and Technical Skills
Hannah Anderson's research revolves around the optimization of Gas Electron Multiplier (GEM) detectors. She creates three-dimensional simulations and models outputs using specialized software such as ROOT and Garfield. Her research involves testing GEM detector setups with Iron 55 radiation, focusing on gain versus positive ion backflow to improve detector performance. These activities highlight her technical skills and her ability to apply theoretical knowledge in practical research settings.
Guidance and Mentorship
In her research endeavors, Hannah Anderson benefits from the guidance and mentorship of Dr. Victoria Greene and Dr. Sourav Tarafdar. Their oversight ensures that her work is rigorous and contributes meaningfully to the field of particle physics. The mentorship she receives supports both her current research activities and her growth as a researcher.