Fundamentals of quantum mechanics applied to atomic, molecular, and complex (solid-state) systems with an emphasis on light-matter interactions and characterization via advanced electronic and vibrational spectroscopies (syllabus)
Prepared materials and delivered 2.5 hour lectures once a week and office hours for ∼10 graduate-level students
Apply quantum mechanical principles and mathematical models to describe the electronic, vibrational, and rotational structure of atoms, molecules, and materials.
Predict and interpret spectroscopic, photophysical, and optical behavior using quantum mechanics, molecular orbital theory, selection rules, and light–matter interactions.
Analyze modern spectroscopic techniques, experimental data, and current literature to explain electronic structure and quantum dynamics in chemical and materials systems.
Classical as well as modern instrumental techniques coupled with computer data processing to measure physical properties and determine atomic and molecular parameters (syllabus)
Responsible for overseeing 10 experiments, 3 graduate teaching assistants and 60 undergraduates per semester
perform experimental techniques common to the physical chemistry laboratory
explain the underlying practical and theoretical aspects of laboratory techniques, including concepts from thermodynamics, kinetics and quantum mechanics
analyze and evaluate experimental results, and perform error propagation
“Dr. Hopper is very kind and cares about student outcomes. He explained concepts very well before each lab and addressed concerns we had about grades and math.”
“Dr. Hopper is a kind professor who is clearly passionate and educated in the concepts covered in this lab. I liked that he really emphasized learning the concepts and the fundamentals of an experiment rather than focusing on us perfecting that experiment.”
“Dr. Hopper was very helpful when it came to explaining concepts that provided helpful background for the experiments. I learned a lot from his explanations, and they significantly improved my understanding of the course content.”
“Dr. Hopper was very approachable to talk to in class and in office hours when problems occurred or questions needed to be answered.”
"Dr. Hopper goes to great lengths to make sure the students understand the material and expectations of this lab course."
General chemistry course covering intermolecular forces, thermodynamics, kinetics, electrochemistry, radiochemistry (syllabus)
Responsible for ∼450 undergraduate students and biweekly 75 min classes per semester
Use chemical knowledge to solve real-world quantitative and qualitative problems
Make predictions about the behavior of materials given their molecular structure
Use relevant mathematical relationships in calculations to predict the behavior of matter
“Great lecturer, class expectations are very clear from the beginning, shows kindness to all students."
“Very understanding professor and truly wants his students to succeed
“Super helpful and engaging during class. The course is set up nicely. Great with communication.
"This professor was amazing. I have not liked a chemistry professor until him. He cares a lot about his students performing well in his class and helps as much as he can. Being his first year teaching at UCF he did a great job."
Introduction to quantum mechanics and its application to the properties of nanoscale materials (syllabus)
Prepared materials and delivered 1 hr lectures 3 days a week for 10 weeks (Apr 2023 - Jun 2023) to 15 undergraduate students (7 female, 8 male)
Recap of prerequisite physics and math concepts (including linear algebra, calculus and complex numbers) with no assumed prior background
Encouraging students to think in a completely different way beyond common sense intuition
An introduction to quantum mechanics, working toward advanced topics fundamental to modern materials science and nanotechnology
"One of the best classes I’ve taken at Stanford!"
"Definitely take it! The instructors are amazing and make the challenging course content much more approachable!"
"I liked how the instructor was always very clear about what the expectations for the course were. He was very good at giving us all of the information so we understood what was happening, but then identifying clearly the most important takeaway"
"Instruction team seemed very supportive. They were also very responsive and helpful."
"Tom and the TA, Arnob were my favorite parts of the course! Tom and Arnob were very engaging in lectures and also supported the class through the difficult material. They were very understanding and accommodating to student circumstances and difficulties."
"The delivery of this class was very good compared to other STEM classes. Office hours were always plentiful and there was so much support."
"The emphasis in this class was really on understanding and not so much grades."
Planning, demonstrating and report marking for 1st & 2nd year Physical Chemistry classes (>160 hrs total, ca. 150 students)
Responsible for electronic and vibrational spectroscopy experiments
Melanie Murillo PhD, EE, Stanford Time-resolved THz/X-ray characterization of halide perovskites Jan 2022-Apr 2022
Tong Wang PhD, Chemistry, Imperial Three-pulse femtosecond spectroscopy of 2D materials Jan 2021-Jun 2021
Ziyuan Ge PhD, Chemistry, Imperial Exciton-phonon coupling dynamics in layered 2D perovskites Jan 2021-Jun 2021
Xijia Zheng PhD, Chemistry, Imperial Multi-pulse THz spectroscopy of polarons in halide perovskites Aug 2020-Jun 2021
Ben Carwithen PhD, Chemistry, Imperial Ultrafast multi-pulse spectroscopy of nanocrystal superlattices Sep 2019-Jun 2021
Zhiyang Yu MRes, Chemistry, Imperial Carrier cooling/recombination in mixed halide perovskites Dec 2020-Jun 2021
Chloe Chau MRes, Chemistry, Imperial Hot carrier relaxation dynamics in PbS colloidal quantum dots Oct 2018-May 2019
Marios Maimaris MSci, Photonics, Imperial Ultrafast IR spectroscopy using optical parametric amplifiers May 2018-Sep 2018
Charlie Erdman BS, MSE, UCF Ultrafast spectroscopy of excitonic & plasmonic nanostructures May 2026-Jul 2026
Brandon Miller BS, Chemistry, UCF PL characterization of molecular & nanoscale materials May 2025-Aug 2025
Alex Richards BS, Chemistry, UCF Optical characterization of molecular & nanoscale materials May 2025-Jul 2025
Nova Wu BE, MSE, Stanford Dynamic SHG/THz characterization of low-dimensional perovskites Aug 2021-Jun 2023
Nomin Erdene UROP, EE, Stanford Probing the real-time atomic & nanoscale structure of perovskites Jun 2022-Aug 2022
Ahhyun Jeong UROP, Chemistry, Imperial Kinetic modelling of intraband relaxation in perovskite nanocrystals Jul 2019-Sep 2019
William Chang UROP, Chemistry, Imperial Global analysis of carrier cooling dynamics in halide perovskites Jul 2019-Aug 2019
Marine Chaplain UROP, Chemistry, Imperial Ultrafast spectroscopy of perovskite nanomaterials Jul 2018-Aug 2018
Seb Gorgon UROP, Chemistry, Imperial Development of a time-resolved Kerr-gated PL setup Jun 2017-Aug 2017
N. Gallop, PhD Thesis, 2021: "Tom, who guided me through the first months of my PhD, and has served as a role-model ever since. The focus, drive, and intellect you brought… always a source of inspiration"
J Zhang, PhD Thesis, 2020: "Tom who also acts as my English teacher – always the first guy for proofreading my publications; you show us by action how to be organized and devoted.”
N. Erdene, UROP Feedback, 2022: "Thank you so much for being willing to answer all of my questions and hear my ideas even though I'm just an undergraduate. I truly felt welcomed and supported"
C. Chau, MRes Thesis, 2019: "Deep thanks to Tom Hopper for all his guidance and help during the project investigation and write-up. His experience and knowledge in spectroscopy and photophysics of quantum dots were particularly beneficial in assisting me through the research"
M. Maimaris, MRes Thesis, 2018: "I would like to thank Tom Hopper for all the guidance and the aid for the completion of this thesis. The discussions we had were crucial for the under-standing of photophysics governing perovskites. Without any doubt this thesis would be impossible without him."