Hydrogen Technologies: A Practical Approach
Coming Soon!
Course access: 4 months
This course has been developed to be completed in 2 months, however, the campus will be open 4 months to give you more time.
Consultation forum
Queries will be channeled via dedicated forums. Our instructors will answer as soon as possible!
Instructor available
A specialist Instructor will be available throughout the entire duration of the course.
Downloadable resources
Case studies, and extra material are downloadable for future reference.
Class videos
The concepts of each lesson are presented in video format.
Lessons included
All the lessons indicated in the CONTENTS tab are included.
Assessment questions
Multiple-choice assessment questions are presented in each lesson to help in the assimilation of fundamental concepts.
Case studies
This is a “hands-on” course. Real (solved) cases are presented to be developed along with the course material.
Certificate of approval
Upon successful completion of the course, a certificate of approval issued by ARVENG will be awarded.
FREQUENTLY ASKED QUESTIONS ABOUT THIS COURSE:
What is pre-registration?
You can pre-register for this course to take advantage of the discounted price. To pre-register, simply add it to the cart and complete the checkout process. Once the course is available you’ll receive an email with instructions on how to access it.
How can I enroll in this course?
To enroll in this course you have to follow the steps below:
- Click on “Add to cart”
- Complete the process using the payment options available.
- You will receive a confirmation email.
- Start training your skills!
Can I register and pay an online course for a 3rd party/more than one person?
To enroll a 3rd party/more than one person you have to follow the steps below:
- Change the number of products of your cart (1 by default):
a. Change the number of products before clicking on “Add to Cart”.
b. Directly on the cart screen, there is a button where you can increase or decrease the amount of products to buy. - State the Name and Surname of the participants in the observations field when completing the purchase.
Are there discounts for groups/companies?
Yes! Contact us indicating your needs and we will find the most convenient alternative for you.
Who should attend?
This course is designed for students, technicians, designers, freelancers, and engineers interested in the practical aspects of the value chain of hydrogen.
Previous knowledge of this subject is not required to attend the course.
Training objectives
The objective is to delve into the components of the hydrogen value chain, with a practical vision of the state of development of the different technologies involved.
What to expect?
Comprehend the peremptory energy transition we are in, and the role that hydrogen should play in it.
Understand how hydrogen is produced, stored, and transported today, and in the future. Get a grasp of the unresolved competition among different possible solutions.
Get a realistic view of the possible uses of hydrogen: as a feedstock, in the balance of renewable generation, in transportation (land, sea and air), and in heat generation.
Assimilate the challenge of the decarbonization of hydrogen itself.
Understand the concept of Levelized Cost of Hydrogen. Current and expected values. Impact of incentives.
Obtain a broad view of the state of development of the multiple hydrogen projects worldwide.
CONTENTS AND STRUCTURE OF THE COURSE: 10 HS
Climate Change – Energy Transition
Roles of Hydrogen in the Energy Transition
Country Strategies
Exercises and Case Studies
- Assimilation Test
Hydrogen characteristics
Atomic and molecular hydrogen
Molecules that contain hydrogen
Reactions
Unsaturated organic compounds. Hydrogenation
Gravimetric and volumetric energy density
Higher and Lower Heating Value (HHV, LHV)
Exercises and Case Studies
- Case study: Volumetric analysis
- Assimilation Test
Hydrogen colors
Other hydrogen classifications
Production from hydrocarbons: SMR / Autothermal / Partial Oxidation
Carbon Capture, Usage and Storage (CCS – CCUS)
Electrolysis – introduction
Alternative technologies to produce hydrogen
Exercises and Case Studies
- Assimilation Test
History of water electrolysis
Electrolyzer Technologies
High temperature electrolysis
Anion Exchange Membrane
Alkaline
PEM
Balance of Plant (BOP)
Efficiency
New developments
Exercises and Case Studies
- Case study: PEM Efficiency – water consumption
- Case study: AE Efficiency
- Assimilation Test
Gaseous hydrogen
Compression
Pressure vessels
Underground storage
Liquid hydrogen (LH2)
Storage in carriers
Ammonia
Methanol
Liquid Organic Hydrogen Carriers (LOHC)
Solid storage
Metal hydrides
Carbon structures
Exercises and Case Studies
- Case study: Volumetric calculation – saline storage
- Assimilation Test
Sea transport
Liquid hydrogen
Ammonia
LOHC
Pipelines
Dedicated hydrogen pipelines (hydroducts)
Repurposing Natural Gas pipelines
Blending
Road transport
Exercises and Case Studies
- Case study: Energy transport capacity of a repurposed pipeline
- Assimilation Test
H2 Piping and Pipeline Systems
International codes
ASME B31.12
ASME B31
Code structure
Specificities for H2 – B31.12 vs. B31.3
Hydrogen Pipelines: Prescriptive and Performance-Based Design
Common materials for H2 piping and pipelines
General recommendations for H2 piping systems
Pressure vessels
ASME BPVC sec VIII div 3 KD-10
Exercises and Case Studies
- Assimilation Test
Fuel cell
Structure
Types of fuel cells. Advantages and challenges
Efficiency
Applications
Heat + electrical energy
Turbines
Blending and pure hydrogen
Hydrogen combustion challenges
H2 turbines commercial models
Fuel cells vs Turbines
Exercises and Case Studies
- Case study: Efficiency of a fuel cell
- Assimilation Test
H2 as an industrial feedstock
Hydrogen to electrical energy
Network balance
Electric energy storage and transportation
Heat production
Combustion
Cogeneration
Exercises and Case Studies
- Assimilation Test
Ground transportation
Lightweight transportation
Heavy transportation
Refueling infrastructure
Sea transportation
Actual examples
Competitive fuels
Expected evolution
Air Transport
Current examples
Industry roadmap
SAF. Sustainable Aviation Fuel
Exercises and Case Studies
- Assimilation Test
| Ammonia and Methanol |
Ammonia
Properties
Risks
Current uses
Potential uses
Synthesis
Decomposition into nitrogen and hydrogen
Methanol
Properties
Risks
Applications
Bio-methanol / e-Methanol
Exercises and Case Studies
- Assimilation Test
H2 Safety-related features
Risks from direct exposure
Leakage risks
Flammability and explosivity
Hydrogen embrittlement
Venting systems
Sensing technologies
Safety regulations related to hydrogen
Exercises and Case Studies
- Assimilation Test
Levelized Cost of Hydrogen (LCOH)
Concept
Typical values
Examples
Levelized Cost of Storage
Levelized Cost of Transportation
Exercises and Case Studies
- Case study: LCOH of a project
- Assimilation Test
Hydrogen projects around the world
Announced investment vs. committed investment
Differences by regions
“Low carbon” investment vs renewable investment
Investment gap
Some representative projects
Exercises and Case Studies
Assimilation Test
EXAMPLE OF A CERTIFICATE ISSUED BY ARVENG:
REQUEST MORE INFORMATION!
Please send us your query and we will reply as soon as possible.
About Instructors
José Luis Lombardo
Electronic Engineer specialized in Petroleum Engineering with a Master's in Business Administration. Over 30 years internation experience in Business and Project Leadership and Management in major companies in the energy industry. Broad experience in the development and implementation of innovative projects and process improvements on a global level by using new technologies.
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