LiSA 101: a condensed course in electrochemical thermodynamics, potentials, and the double layer given to participants in the DOE Liquid Sunlight Alliance
Slides: Electrochemical Thermodynamics and Potentials – LiSA 101 Boettcher
Lecture 2 Video (45 minutes) Examples of applications of electrochemical thermodynamics
Lecture 3 Video (35 minutes) Double Layer Structure
Advanced Electrochemistry (Boettcher/Lonergan some duplicate lecture topics) Follows Bard and Faulkner, 2nd Ed. with some additions
(please consider purchasing this book for use alongside these lectures to support the writing of valuable electrochemistry texts)
Projects and Homework (in editable format, please adapt and use with citation to original source)
Lecture 1: What is Electrochemistry? Introduction and applications
Lecture 2: Introduction to electrochemical thermodynamics, kinetics, and transport
Lecture 3: Two- versus three-electrode cells
Review Lecture: Electrostatics, charge, fields and potentials
Lecture 4: Op Amps and Basic Potentiostat and Galvanostat Circuits
Lecture 5: Faradaic and Non-Faradaic Currents
Lecture 6: Mass Transport Limited Voltammetry
Lecture 7: Electrochemical Thermodynamics (Boettcher)
Lecture 8: Electrochemical Potentials (Boettcher)
Lecture 7a: Electrochemical Thermodynamics Introduction (Lonergan, live) alternative
Lecture 8a: Electrochemical Thermodynamics: Cell Potentials and Reduction Potentials (Lonergan, live) alternative
Lecture 9a: Electrochemical Thermodynamics: Chemical and Electrochemical Potential (Lonergan, live) alternative
Key reading: Potentially Confusing: Potentials in Electrochemistry (see LiSA 101 videos above)
Lecture 10: Electrochemical potentials across interfaces and in cells (Lonergan, live)
Lecture 11: Pourbaix Diagrams and Reactions (Boettcher, live)
Bonus : How to use Hydra and Medusa to calculate Pourbaix and speciation diagrams
Lecture 12: Introduction to Electrochemical Kinetics
Lecture 13: Derivation of the Butler-Volmer Equation
Lecture 14: Exchange current and the current-overpotential equation
Lecture 15: Approximate forms of the current-overpotential equation and Tafel behavior
Lecture 16: Multistep Electron Transfer Kinetics and Rate Determining Steps
Lecture 17: Introduction to Marcus Theory
Lecture 18: Mass Transfer by Migration and Diffusion
Lecture 19: Mass Transfer by Migration and Diffusion part 2
Lecture 18-19b: Transport (Lonergan, Live) alternative
Lecture 20: Potential Step Experiments and the Cottrell Equation
Lecture 21: Potential Sweep Methods
Lecture 22: Chemical Reaction Mechanisms from Voltammetry and Rotating Disk Voltammetry
Lecture 23: Introduction to AC Impedance Analysis I
Electrochemical Engineering: Follows Fuller and Harb, 1st Ed. , with some additions
(please consider purchasing this book for use alongside these lectures to support the writing of valuable electrochemistry texts)
Electrochemical Engineering Lecture 1 Porous Electrode Theory
Electrochemical Engineering Lecture 2 Porous Electrode Theory – Three Phase Electrodes
Electrochemical Engineering Lecture 3 Porous Electrodes with Flow
Electrochemical Engineering Lecture 4 Battery Fundamentals: Introduction
Electrochemical Engineering Lecture 5 Capacity and Cell Characteristics
Electrochemical Engineering Lecture 6 Batteries – Efficiency, Self Discharge, and Cycle Life
Electrochemical Engineering Lecture 7 Fuel Cell Fundamentals
Electrochemical Engineering Lecture 8 Fuel Cell Electrodes
Electrochemical Engineering Lecture 9 Electrodeposition Basics, Nucleation, and Growth
Electrochemical Engineering Lecture 10 Current Distributions
In class work W7D1 – industrial electrochemistry
Electrochemical Engineering Lecture 12 – Corrosion Part 1
Electrochemical Engineering Lecture 13 Corrosion Part II
CH 692 In class work w8d1 – corrosion
Electrochemical Engineering Lecture 14 Battery Packs Part I
Ch 692 In class work w9d1 battery packs
Electrochemical Engineering Lecture 15 Battery Cells and Packs II
Electrochemical Engineering Lecture 16 Fuel Cell Stacks and Systems