[site still in progress and draft, the below information will be organized into a table listing each corse the year it was taught and the students and learning objectives the HTML is taking a bit of time to work out]
During my time in undergrad I TAed three courses in Intro to Programming I and II and also A Microsoft Office, a requirement for every student. Student class sizes had been around 30 students. I tutored physics and calculus during my undergrad. After completing my undergrad I served as a Tutor for high school students in both physics and geometry.
Once I started my PhD program I TAed for several courses where the class sizes were around 50 students for the first courses and around 10 for the second semester of the physics courses. Physics labs I and II, the course Students learn how to measure and apply physics principles in the laboratory. I served as a TA for astronomy labs where students learn the basics and foundations measure theory, and how to conduct experiments based on pure observational methods. I taught several physics recitations for physics I and II where students learn to solve physics problem sets.
I have been working on generating a series of public outreach short educational videos for the general public. I have also been working on generating a few public outreach demonstration videos for how to potentially utilize AI in the class room and research lab, for both educators and students. I have also been working on collecting a set of references and notes to develop two courses for utilizing machine learning in STEM courses aimed at undergrads, and a separate one at grad students, and developing a series of references, and notes to serve as an online reference for students taking the course.
Teaching
University of Alabama at Birmingham
Physics Astronomy Lab 111 30-50 students 2015, 2016
Laboratory experience surveying the astronomical enterprise and the
scientific study of the universe, including methods by which observations
and measurements are interpreted to determine physical laws, cosmic
history, and evolution.
Physics Astronomy Lab 112 30-50 students 2015, 2016
Laboratory experience in conceptual and collaborative approach to
understanding the scientific processes by which astronomers make
inferences about stars’ and galaxies’ formation and evolution from
ground- and space-based observations.
Physics Astronomy Lab 113 30-50 students 2015
Laboratory experience demonstrates how astronomy is practiced through
observation experiences, laboratory experiments, and exercises involving
analysis of data.
In progress: The below table will be formatted using proper HTML to reflect the sample above
Teaching
Univerisy of Alabama at Birmingham
,112,118, Undergrad labs consisted of:
Hertzsprung Russell Diagrams, orbital occlusion and period measurements,
stellar classification,determination of isotropic asteroid belt distributions,
spectral classification of gasses, measurement of Hubble Constant via red shift of type II supernova
In person Physics I, II Labs, Physics I, II Recitation
Determination of spring constants, energy and frictional forces utilizing Pasco
system equipment. determination of resistance,voltage,current,electric and
magnetic fields, diffraction and diffusion grating spacing
Online Physics I Lab,Physics I, II Recitation
Held live lab sections for Q and A for at home IO Device labs. Ran online
recitation for Physics I and II, AL
Pittsfield Public School System
Massachusetts College of Liberal Arts
Camden County College
Physics Visualization for Education
- Wave mechanics using shader techniques in unity, and unreal engine
- polarizability of charged spheres, thermodynamic visualizations for instructive purposes
- Researched how error related to sample size on two physical phenomena, radioactive decay and an infinite square well.
- Use shader based graphical programming to emulate machine learning systems for distributed web platforms for better visualization and understanding of Ising Models, reaction diffusion, decay, and other physical models models
- Simple modeling of photonic imagining systems to demonstrate various optical resolution criterion, and airy discs for visual understanding.
- Simple modeling using noise to create ground truth datasets of fracture surface for visualization and clarification of machine learning resolution and resolvability studies.
- Developed shader based and numpy based statistical photonic modeling to illustrate the temporal dependence of images and sensor detection.