Teaching

Inspire learners to expand their potential. Encourage an attitude and climate of vulnerability, community, and growth. Model a discipline of intentional practice.

Statement of Teaching Philosophy →

January – July 2016

Adjunct Instructor

Brigham Young University–Idaho, Department of Physics · Rexburg, ID, USA

Responsible for designing and implementing the course layouts, instruction, and assessments for several classes of 20–30 students each.

PHYS 121: Principles of Physics 1 (Spring 2016)
The first course in the calculus-based sequence of introductory physics for science majors, focused on Newtonian laws of motion and the concept of energy, taught with peer-instruction active learning. Average student rating 6.3/7.0.
PHYS 220: Principles of Physics 3 (Winter 2016)
The third calculus-based introductory physics course, teaching principles of electricity and magnetism and how they relate to Maxwell’s equations. Average student rating 5.6/7.0.
PHYS 150: Beginning Physics Lab (Winter & Spring 2016)
A hands-on laboratory course introducing first-year students to experimental physics, with emphasis on experimental uncertainty, statistical analysis, regressions, and simple numerical modelling. Average student rating 6.1/7.0.

Certification, 2022

Graduate Teaching and Learning Program

Faculty of Graduate Studies and Research, University of Alberta

The Graduate Teaching and Learning Program helps graduate students engage with best practices and the scholarship of teaching, learning, and course design, and supports their development as future primary instructors. Benjamin completed all three levels:

  • Level 1, Foundations (25 hours)
  • Level 2, Practicum (18 hours)
  • Level 3, Pedagogy and Course Design (39 hours)

About the program (University of Alberta) →

PHYS 111: Quantum Mechanics and You

Course design, Graduate Teaching and Learning Program Level 3, January–April 2022

For Level 3 of the program, Benjamin designed and outlined a university course in quantum mechanics for incoming first-year students from all over campus, organized in modules around quantum principles and their applications without heavy mathematical formalism. He presented the course design at the NanoCanada From Earth to Space conference in June 2022.

Despite being the center of some of the “hottest” and most disruptive advancements of the 21st century, quantum mechanics has the reputation of being sterile, esoteric, and incomprehensible for the average human being. In truth, however, many of the problems people perceive in learning quantum mechanics stem from the language used to describe it and the apparent lack of meaningful associations. This course represents an attempt to open these learning opportunities to a wider audience. It is based on the assumption that anyone with interest and dedication can appreciate and begin to learn quantum mechanics.

From the PHYS 111 course description
Intended learning outcomes
  1. Describe and differentiate between scientific fact, law, hypothesis, and theory.
  2. Examine and appraise scientific data, claims, and concepts for making wise decisions affecting themselves and others.
  3. Explain foundational quantum principles such as discreteness, superposition, probability, and entanglement.
  4. Identify applications and operations of these principles in a variety of modern and future technologies.
  5. Calculate physical quantities that are relevant to these applications.
  6. Distinguish the operation and capabilities of classical and quantum computers.
  7. Assess the social and ethical implications of upcoming quantum technologies.
  8. Express and reflect on quantum mechanical ideas, applications, or open questions in writing and other formats.

The culminating project is an UnEssay: students choose a topic related to the course that interests them, research it, and present their findings in a creative format. Early assignments, such as a topic-selection document assessed with a single-point rubric, scaffold students toward it.

Quantum Computing Challenges & Exploration

Workshop instructor, Quanta CREATE Student Symposium, Edmonton, August 2022

An accessible, interactive, and safe learning environment where participants can explore and push themselves in quantum computing topics. The workshop features lab challenges using IBM's open-source Qiskit software package and free interactive textbook. Participants have widely varying levels of experience, so the session is practical and hands-on: partners are paired at random and work through the challenges together.

Learning outcomes
  1. Identify the Qiskit Textbook as a free resource for personal learning of quantum computation.
  2. Construct and execute a quantum circuit using Qiskit.
  3. Recognize several single- and multi-qubit gates and predict their effects on a qubit's state.

Teaching Assistant

University of Alberta (2016 – 2023)

  • PHYS 295: Experimental Physics I (2023 & 2017)
  • PHYS 292: Experimental Physics for Engineers (2018)
  • PHYS 372: Quantum Mechanics A (2017)
  • PHYS 130: Wave Motion, Optics, and Sound (2016)

Brigham Young University (2014 – 2015)

  • PHYS 245: Experiments in Contemporary Physics (2015)
  • PHYS 108: General Physics Lab 2 (2014)
  • PHYS 123: Introduction to Waves, Optics, and Thermodynamics (2014)

Student Feedback

Selected anonymous comments from students.

“He was always willing to help out when I needed. He provided just the right amount of guidance, in that it was the perfect balance of developing my skills individually while also being nudged in the right direction when I asked a question. Ben was very exceptional, one of the best TAs I’ve ever had. He was also available to meet outside of lab hours so that I could ask him a question, and he gave me some great feedback to improve my writing skills in a research context as well.”

PHYS 295 student, Fall 2017, U. of Alberta

“The class was enjoyable. Br. Smith is enthusiastic about the subject matter and always brought a great energy to the class. He was always encouraging and willing to help us when needed.”

PHYS 150 student, Winter 2016, BYU–Idaho

“Bro. Smith was awesome. I am glad that I got to be a part of his first class ever taught. It was sweet to watch him grow throughout the semester. Very helpful outside of class.”

PHYS 220 student, Winter 2016, BYU–Idaho

“He was very helpful, he definitely provided the opportunity to learn and to improve. Tremendously satisfied. A+”

PHYS 220 student, Winter 2016, BYU–Idaho

“The instructor really cares about his students and is always looking to improve. Sometimes he is too hard on himself and sometimes he needs to realize that he will improve as he keeps trying and to not give up.”

PHYS 121 student, Spring 2016, BYU–Idaho

“Your love for us and the material was inspiring. Thank you for all you did.”

PHYS 121 student, Spring 2016, BYU–Idaho