Zero Carbon Fuels: Ammonia and Hydrogen

Introduction

Global dependence on energy continues to grow across industrial, commercial, and societal activities, while the urgency to reduce carbon emissions intensifies due to climate change and regulatory pressure. Traditional energy systems based on fossil fuels have contributed significantly to greenhouse gas emissions, prompting organisations and governments to explore alternative energy pathways that support decarbonisation without compromising energy security or economic performance. Within this context, hydrogen and ammonia have emerged as prominent candidates in discussions around zero-carbon and low-carbon fuels.

This Zero Carbon Fuels: Ammonia and Hydrogen training course provides a balanced and critical examination of whether hydrogen and ammonia can genuinely support a transition toward carbon-free energy systems. The course explores the full value chain of these fuels, from production methods and infrastructure requirements to industrial applications, economic implications, and environmental impact. Particular attention is given to the distinction between different production pathways and their associated embedded carbon, highlighting that not all hydrogen or ammonia is produced with the same emissions profile.

Participants will gain clarity on how hydrogen and ammonia can contribute to reducing carbon emissions across energy-intensive sectors, while also understanding the technical, regulatory, and commercial challenges associated with large-scale adoption. The training course positions these fuels within broader sustainability and energy transition strategies, enabling informed decision-making based on realistic assessments rather than assumptions. By the end of the course, participants will be better equipped to evaluate opportunities, risks, and practical pathways for integrating hydrogen and ammonia into future energy and industrial systems.

Key themes addressed include:

• Understanding zero-carbon and low-carbon fuel concepts
• Production pathways and embedded carbon considerations
• Industrial and energy applications of hydrogen and ammonia
• Strategic planning for sustainable energy transitions