Teaching
My teaching practice is centered on clarity, structure, conceptual understanding, and formative feedback. I see teaching not only as the transmission of information, but as the careful organization of reasoning.
In physics and language education, students often struggle not because they lack ability, but because they lack a clear path between intuition, formal representation, and meaningful use. My goal as an educator is to make that path visible.
Physics teaching.
My work in physics teaching focuses on conceptual explanation, problem-solving, scientific reasoning, and individualized academic support.
I aim to help students understand not only how to solve a problem, but why a method works, what assumptions are involved, and how mathematical expressions connect to physical meaning.
Language teaching.
My experience as a language instructor includes English, German, and Portuguese for foreigners.
In language teaching, I value communication, clarity, grammar awareness, pronunciation, and learner autonomy. My multilingual background also informs the way I approach explanation, comparison, and adaptation to different learning profiles.
Teaching philosophy.
My teaching philosophy is based on the idea that understanding develops progressively.
Students need more than correct answers. They need feedback, structure, conceptual anchors, and opportunities to revise their reasoning.
I believe that rigorous teaching should not be obscure. A good explanation does not remove complexity; it gives students a way to enter it.
Formative feedback and conceptual learning.
Formative feedback is central to my teaching approach. Rather than waiting until the end of a course or assessment to identify difficulties, I believe that instructors should continuously observe student reasoning and respond to it.
This approach is especially important in physics, where misconceptions can remain hidden behind correct algebraic manipulation.
A student may know which formula to use and still misunderstand the concept. For this reason, teaching should include diagnostic questions, conceptual prompts, explanation-based tasks, and opportunities for reflection.
Example of a Digital Instructional Resource in Physics
This project demonstrates my experience in creating digital resources for physics education. The material was designed to support high school students in understanding abstract concepts in modern physics and quantum mechanics through accessible language, conceptual progression, multimedia resources, simulations, and questionnaires.
The project also reflects my interest in connecting physics teaching, educational technology, and conceptual learning, especially in topics that commonly generate persistent difficulties among students.