My teaching merges the importance of understanding fundamental chemical principals with the relevance of products used in the world around us. I use frequent in class demonstrations and hand specimens to help connect the blackboard material in meaningful ways to a diversity of student interests and passions. I am an advocate of pushing educational experiences beyond the typical classroom to create an immersive learning experience. My classes often include fieldtrips, and team projects while introducing opportunities for extracurricular engagement.
I am an advocate of pushing the educational experiences beyond the typical classroom to create an immersive learning experience.
I have often found that students are most fully invested in the learning process when they drive the questions, and the most promising way I have found to motivate individual interests is through extra-curricular activities. While at Stanford, I played a key role in increasing the capacity of the Stanford ceramics club, a student organization charged with educating the Stanford community about ceramics, a medium that encompasses art, science, and culture. Additionally, I helped set up the Stanford mechanical engineering project realization lab's blacksmithing area, a historically important component of mechanical engineering that provides an ideal venue for experiencing and motivating interest in materials science, phase equilibria, and metallurgy.
Linking intellectual pursuits with tactile ones During a guest lecture for a Stanford Art History course, Ryan connects art history PhD students with clay, in-between describing the importance of reduction-oxidation chemistry in Greek black-figure pottery. Photo credit: Professor Jody Maxmin
Below is a list of courses I am particularly excited about teaching:
An undergraduate science/engineering major course that introduces students to the laws of thermodynamics and how these laws control many of the processes around them. Students learn to think about thermodynamic processes with regards to the encompassing system, and gain an understanding of heat, entropy, volume, pressure, work, and mass flow. As the course progresses, discussions based off visuals and the classrooms experience with energy transform into the formal mathematical definitions, connecting and guiding intuition into an appreciative comprehension of thermodynamic potentials.
An undergraduate course that introduces college level concepts of basic chemistry at the intersection of the environment and humanity's influence on it.
Text: Principles of Environmental Chemistry, James E. Girard.
An interdisciplinary course aimed at providing an appreciation for the diversity of disciplines important to ceramics. The course begins with a historic introduction to ceramics as a material while highlighting some of its many uses in society. Students discuss their views on a variety of ceramic pieces, from which the course introduces aesthetics, the variety of sensory inputs and how they are valued. The course introduces students to the role of chemical composition in determining material properties and outlines the chemical makeup of ceramics. An ethnographic overview of cultural values with respect to ceramics separates a second chemistry discussion on the health and safety implications of oxide chemistry. Technological ceramics are introduced in parallel to ceramic engineering, clearly defining the ubiquity and long standing relationship of humans and ceramics. The class culminates in a term paper in which students discuss the development, functional purpose, aesthetic virtues, and manufacturing process of a ceramic object commonplace in a current society.
This upper division undergraduate and graduate level laboratory course empowers students with action based approaches for conceptualizing, designing, and creating technical apparatuses. A mix of hands on individual and team based assignments prepare students to be innovative but well-reasoned thinkers in both the industrial work place and the academic laboratory. The course covers design principles, materials selection, fabrication techniques, metrology, and uncertainty.
A graduate level course that connects atomic properties and symmetry to their spectroscopic implications. The course emphasizes understanding the limitations and capabilities of a technique for solving proposed questions. Through the course, students are asked to analyze spectra from a variety of techniques, giving students a peripheral understanding of Raman, Infrared (IR), X-ray Photoelectron Spectroscopy (XPS), Electron Energy Loss Spectroscopy (EELS), Nuclear Magnetic Resonance (NMR), Prompt gamma neutron activation analysis (PGNAA) and the LIGO project.
Text: Modern Spectroscopy by J. Michael Hollas, and numerous course reader style handouts.
A graduate level course that covers the remarkable properties of surfaces and their catalytic properties. The course starts by grounding students in the atomic surface structures of well-known bulk materials. From here the course introduces more complex surfaces, as well as the nucleation, deposition and growth of new surfaces. Midway thought the course, the focus shifts to catalysis, starting with adsorption/desorption kinetics as a starting point to understand liquid-solid interfaces. The course concludes with heterogeneous catalysis and an overview of computational and spectroscopic techniques for understanding and optimizing this process.
Text: Surface Science by Kurt W. Kolasinski.
This graduate level course gives students an in-depth understanding of thermodynamics as it applies to binary phase diagrams. Modeled after Stanford professor Alberto Salleo's similarly title course, my course develops upon students undergraduate level understanding of thermodynamics as it increases their comfort level with the material.