The Certificate of College Teaching (CCT) is a program for graduate students and postdocs who are interested in developing skills and expertise in college teaching. Below, I highlight some of the educational activities, workshops, and courses that I have engaged in during my PhD. Other components of my portfolio, such as my teaching philosophy and educational research, can be found under the "Teaching" main page.
In Spring 2021, I enrolled in ISE 870 - Teaching College Science. Made virtual due to the pandemic, the class was nevertheless small and interactive, providing a broad foundation for teaching in the natural sciences. I collaborated closely with two other physics graduate students to develop mock materials for physics courses, including syllabi and lesson plans. We also engaged in "microteaching," meaning we gave short lessons to our classmates on a physics topic of our choice (we also learned from our classmates on their expertise, and it was a lovely sharing time!). We practiced both "teacher-centered" (lecture based) and "student-centered" (interactive, discussion-driven) lessons.
Syllabus for ISE 870: Teaching College Science
As the course schedule in this syllabus (left) indicates, ISE 870 topics included, among others, assessment, lesson plans, and teaching styles. We developed strategies for handling these important aspects of teaching. For example, Backwards Design was presented as a way to create lesson plans that are rooted in concrete learning outcomes. By working in small groups with other physics graduate students, we were given the opportunity to discuss and apply these strategies in the context of our field of study. We even designed an undergraduate physics course together, one which could reasonably be taught in a university physics department.
My group mates and I designed a syllabus for a fictional course titled "Modern Physics," designed to transition second-year physics majors to the revolutionary ideas of 20th century physics. In the spirit of realism, we considered all aspects of the class, including required technology and materials, course schedule, and class policies . Having never been a lead instructor in a course of my own, this project will serve as an incredibly useful template for when I eventually do teach my own classes.
Even amongst physicists familiar with quantum mechanics, quantum entanglement is often treated as a fuzzy concept. Yet in many situations we actually have a precise way of discussing it! I had the opportunity to design a lesson plan teaching entanglement and nonlocality to a cohort of advanced undergraduate students. I applied the principles of backwards design to align the lesson with desired learning outcomes. I hope to use this lesson plan in a course on quantum mechanics, or in the quantum information seminar that I organize.
The samples above illustrate some of the activities in ISE 870. Overall, the course provided me opportunity to develop skills in course planning, curriculum development, classroom management, and fostering a diverse, equitable and inclusive environment. I also investigated theoretical models of student learning and teaching which have contributed to the underpinnings of my teaching philosophy.
In many respects, the subsequent competencies below are elaborations on the things I was originally introduced to in this course. Each class session was different, and covered themes that I would repeatedly see in workshops, education research papers, and teaching practice.
Artifact: Map of single-occupancy restrooms on MSU's campus. Part of presentation on inclusion by Prof. Kirstin Parkin.
When designing and teaching an academic course, our focus is typically directed on the academic content: assignments, assessments, in-class activities, and so on. It's surprisingly easy to forget that students are human beings that bring their full selves with them to class. To be considerate and empathetic towards my students, I try to ask questions like: Is my assignment reasonable? Are my policies inclusive, or unintentionally discriminatory? Am I making myself available as a mentor and guide to students, or just a distant authority figure?
During the CCT institute, Prof. Kirstin Parkin offered a story of how a small interaction had an outsized impact in fostering an inclusive classroom. She recounted a conversation with a student, who, after the first day of class, requested that they be addressed with they/them pronouns. Parkin responded without judgement, and followed up by asking if they had sufficient access to single-occupancy restrooms. At this gesture of thoughtfulness, the student began to cry. Nobody had thought to ask them that before. This story highlights the impact that seemingly small considerations can have on students' academic experience. In my view, these impacts can be more important than the course's academic content, and need to be treated with appropriate weight.
I co-organize a seminar on quantum information and computation that is attended primarily by graduate students, and it is important to me that attendees find the experience enjoyable, both for the academic content and in their sense of belonging. This is why I make sure to include questions on end-of-semester surveys that ask whether participants "felt welcomed" as they are. I also believe the act of giving out these kinds of surveys signals to participants that the organizers are interested in their wellbeing and experience, and will make changes as needed to promote inclusiveness.
I've learned to get to know my students and also open myself up in little ways. Telling students I'm having a busy week, or that I saw a musical at the Wharton that I really liked, gives students a window into my personal life that I believe promotes positive interactions. This also signals to students that I would like the relationship to be built on respect and not power imbalance. Understanding and being in tune with students' needs will build trust, which I believe has positive implications for their academic performance. Students who trust me will trust that my teaching practices, such as assessments and grading policies, are done with their good intentions.
Artifact: CCT Institute participants brainstormed the role of technology in the classroom using a Jamboard.
Technology, broadly defined, is a set of tools that can be used to enhance human capabilities. In the context of teaching, technology should be employed to enhance the learning experience and facilitate the achievement of learning objectives. For example, communications technology such as a discussion forum can allow students to collaborate and ask for help more easily outside of the physical classroom. Since technology requires time upfront to learn, it must be carefully considered whether a piece of technology actually augments, rather than detracts from, the learning experience. Technology can also present barriers when there is unequal familiarity with classroom technologies. Teachers should frequently check in with their students' perspective and ask themselves whether their technology expectations are reasonable, in accordance with the discussion above on learning environments.
I was the lead instructor every Friday for a studio-style, introductory physics course for non majors within MSU's Lyman Briggs college. 'Studio-style' refers to the integration of lecture, lab, and recitation into one setting, creating a dynamic and interactive environment. One of my regular practices was asking the class iClicker questions to gauge baseline knowledge. In the above example, students are asked about the units of electric potential energy (correct answer A). The use of iClicker presents several advantages to alternative polling methods, including anonymity (low-stakes, participation only) and immediate visualization (feedback). I think they were also fun! At least, I enjoyed them as an undergraduate myself in my physics lectures.
During the CCT Institute, we had the opportunity to try out several pieces of classroom technology and reflect on their utility. A particularly memorable activity involved designing a mini lesson involving two Life Saver candies. In a subsequent discussion, we were asked to consider whether these candies constituted "technology". Regardless of the answer, reflecting on this opened up my mind as to what tools could be creatively incorporated into a lesson. As the available set of technologies becomes increasingly sophisticated, this activity strengthened my resolve to use the simplest possible tool that gets the job done effectively. This may sometimes be advanced information technology, and it may sometimes be a whiteboard with markers.
A list of post-secondary institution types in the United States, as discussed at the CCT Institute.
"Going to college" can refer to a surprisingly diverse range of experiences, as indicated by the document above on types of higher education institutions. The educational context refers to the broader setting in which teaching and learning is taking place. This includes the institution type, the stated values of the institution, the culture and norms of students as well as their goals and purpose for attending the institution.
Understanding the university context is important for both choosing an institution to work at, and also for understanding how to align one's teaching with that context. If I choose to rebel or push back against an aspect the context I am within (e.g., promoting well-rounded educational experiences over specialization at an R1 institution), at least I will be aware of what I am doing. It's important to ask: who are the students in your classroom and what is their background? Will my teaching appoach align with the kind of experience students, and the university are expecting? What is the stated mission of the university, and what are the criteria for evaluating teaching? I can make my own choices, but being aware of these facets will inform my choices.