NOC:Electrochemical and Economic Aspects of Hydrogen Energy

Lecture 1 - Introduction

Lecture 2 - Challenges with Fossil Fuels

Lecture 3 - Renewable Energy and Hydrogen

Lecture 4 - Energy Consumption in Different Countries

Lecture 5 - Energy Consumption in Different Sectors

Lecture 6 - Economic Modelling

Lecture 7 - The Current Market for Hydrogen - I

Lecture 8 - The Current Market for Hydrogen - II

Lecture 9 - Hydrogen Production from Fossil Fuels - I

Lecture 10 - Hydrogen Production from Fossil Fuels - II

Lecture 11 - The Cost of Hydrogen Production from Fossil Fuels - I

Lecture 12 - The Cost of Hydrogen Production from Fossil Fuels - II

Lecture 13 - Carbon Capture from Fossil Fuel-based Hydrogen

Lecture 14 - The Production of Hydrogen from Renewable Sources

Lecture 15 - The Economics of Hydrogen Production by Electrolysis

Lecture 16 - Hydrogen Production from Biomass

Lecture 17 - Economics of Hydrogen Production from Biomass

Lecture 18 - Biomass Lab

Lecture 19 - Introduction to fuel cell and electrolyzers

Lecture 20 - Thermodynamics of fuel cell and electrolyzers - I

Lecture 21 - Thermodynamics of fuel cell and electrolyzers - II

Lecture 22 - Variation in reversible potential and the Nernst Equation

Lecture 23 - Nernst equation and Numerical Problems - I

Lecture 24 - Numerical Problems - II

Lecture 25 - Numerical Problems - III

Lecture 26 - Characteristic curve (I-V) of a fuel cell

Lecture 27 - Potential losses in fuel cells and electrolyzers

Lecture 28 - Fuel cell efficiency and numerical problems

Lecture 29 - Significance of current and power density

Lecture 30 - Significance of cell components

Lecture 31 - Cell stacking

Lecture 32 - Fabrication of the membrane electrode assembly

Lecture 33 - Introduction to Reaction kinetics of fuel cell - I

Lecture 34 - Reaction kinetics of fuel cell - II

Lecture 35 - Butler-Volmer equation - I

Lecture 36 - Butler-Volmer equation - II

Lecture 37 - Butler-Volmer and Taffel Equation - III

Lecture 38 - Charge Transport mechanism in fuel cell and electrolyzers

Lecture 39 - Charge Transport mechanism and numerical problems

Lecture 40 - Ohmic losses and significance of interfacial contact resistance

Lecture 41 - Mass transport in fuel cell and electrolyzers - 1

Lecture 42 - Mass Transport: Relationship Between Current and Diffusive Flux

Lecture 43 - Concentration loss and numerical problems

Lecture 44 - Bipolar plates and different flow field designs

Lecture 45 - Scale-up issues in fuel cell and electrolyzers

Lecture 46 - Laboratory Demonstrations

Lecture 47 - Hydrogen Storage and Transport - I

Lecture 48 - Hydrogen Storage and Transport - II

Lecture 49 - Cost of Hydrogen Storage

Lecture 50 - Cost of Hydrogen Storage and Transport

Lecture 51 - Mass Shipping of Hydrogen - I

Lecture 52 - Mass Shipping of Hydrogen - II

Lecture 53 - Mass Shipping of Hydrogen - III

Lecture 54 - Competitive Position of Hydrogen versus Fossil Fuels

Lecture 55 - Case Studies for Hydrogen Economy

Lecture 56 - Process Simulation of Hydrogen Energy Systems

Lecture 57 - Introduction to Life-cycle Assessment - I

Lecture 58 - Introduction to Life-cycle Assessment - II

Lecture 59 - Introduction to Life-cycle Assessment - III

Lecture 60 - LCA of Hydrogen Energy Systems

Lecture 61 - Case Study