I see teaching as the ultimate form of dedication and passion for a field. It is the opportunity where we have the chance to connect with the next generation and share our vision, experiences, and expectations, besides hearing from them their perspective for the future. I believe teaching is a way of giving back to the community and an opportunity to implement actions for diversity and equity to shape our society. Moreover, my biggest reward when teaching and mentoring is the moment when I see students independently solving problems and owning their knowledge.
My interest lies in teaching both undergraduate and graduate students, covering introductory topics to complex concepts in the fluid-thermal-structure interaction field, such as fluid dynamics, aerodynamics, structural dynamics, vibrations and acoustics, and thermal science topics. Throughout my professional training, I have been working with a wide range of topics in the teaching capacity, so I would also like to contribute to the curriculum by bringing this multidisciplinary approach to the class in different aspects.
Because my research in aeroelasticity has a multidisciplinary scope, my teaching interests involve both structural and fluid topics, not entirely excluding thermal sciences. Thus, my teaching interests surround topics such as: Structural Dynamics and Aeroelasticity, Aerothermodynamics, System Dynamics and Vibration, and Computational Fluid Dynamics.
Among my previous experiences, below are three selected ones that describe some of the responsibilities I held in the last few years:
As the Graduate TA for two semesters, I led the remaining TAs in the course, assigning responsibilities and assisting with lab protocols and exams, besides providing support on lab activities and grading material. This was my most recent exposure to a teaching position, and the reality of dealing with a big class led me to develop a great sense of fairness throughout the semester, especially when dealing with students from different academic backgrounds and needs. It was also a very exciting class to assist teaching, since it is one of the first experiences students have of an engineering course. It was clear to see the shift needed from the students when applying calculus and physics concepts to solve the exercise set, giving me a different perspective on how to mentor students during this process.
As a TA for the Thermodynamics class, I had the chance to explore different aspects of teaching during this experience, where I held a few lectures covering the course content, held office hours for students, assisted with lab demos and activities, and provided feedback on the writing exams. One of the challenges I faced during this semester was choosing the right examples to present in class and being ready for the multiple kinds of questions that would arise during the class. Additionally, I had the chance to develop from scratch a lab assignment for the class: I developed the prompt sheet for the class and was responsible for finding the appropriate set of steps that would allow students to reach the correct conclusion about the topic being explored by the lab setup. Even though it was a challenge, it was also rewarding when I would talk to the students, asking for feedback, and I could see that they were reaching the appropriate conclusions and applying the right theory behind the experiment.
I was invited for two semesters to give a guest lecture for this undergraduate course, particularly on the topic of structural failure in the aerospace context. Usually, at this point in their program, students are dealing with very generic and academic examples of the theory of failure. Besides introducing topics outside of the comfort zone for most of the students, the lecture is focused on real flight accidents where I discuss some of the most famous aeronautical accidents due to structural failure, and we dissect the reasons for each accident and how we can trace it back to one type of failure, connecting with the idea of how important this critical thinking is during the design process. I see this as the chance to bring the aerospace context closer to the students’ reality and give them the chance to put into practice all the theoretical content from previous classes.
As a former engineering team member during undergrad and current graduate mentor, I have experienced and now see how the learning process is more effective with the "learn by doing" approach. And the value of it is not only in terms of trial and error, but it also provides the opportunity for the student to develop the thinking process and approach a problem, and what it takes to reach a solution. It also shows the students that mistakes are part of any development process.
I believe one strong component of mentoring students is to create a sense of autonomy during the project. One-on-one weekly meetings are an opportunity to discuss their progress and their vision for the project based on results. My part in this process is to make sure the students are on the right track, keeping engaged with the project, and discussing possible alternative solutions or directions for the project. Even though I have the "big-picture" for the project, I like to always ask them about what future steps we can take during these meetings. This is a way for me to work on the notion that their ideas are also important and that they might help us change the course of our work.
I believe one strong component of mentoring students is to create a sense of autonomy during the project. One-on-one weekly meetings are an opportunity to discuss their progress and their vision for the project based on results. My part in this process is to make sure the students are on the right track, keeping engaged with the project, and discussing possible alternative solutions or directions for the project. Even though I have the "big-picture" for the project, I like to always ask them about what future steps we can take during these meetings. This is a way for me to work on the notion that their ideas are also important and that they might help us change the course of our work.
"Unsteady Pressure Distribution over Pitching Airfoil" - Hadrien Pratte-Ness (Independent Study - 2023), Josh Kramer (Independent Study - 2023/2024)
"Unsteady Pressure Distribution over Airfoil with Control Surface" - John Smalley (Independent Study - 2022/2023), Eric Huang (2023/2024)
"Measuring Drag Coefficient for the Duke XPRIZE Mother Drone" (Ocean Engineering class activity, Fall 2022) - Alexandra Rivera
"Methods of Measuring The Natural Frequency of Plates" - Everett Werner & Joey Zhou (Pratt Fellows - 2021/2022)