About this Training Course
The global energy transition is increasingly shaped by the urgent need to balance decarbonisation ambitions with energy security, resilience, and affordability. Electrification and Energy Security for a Resilient Energy Future has therefore become a central priority for governments and businesses. In today’s environment of geopolitical uncertainty, supply chain disruptions, and rapidly rising electricity demand driven by electrification, transport, industry, and digital infrastructure energy security has become a central priority for governments and businesses alike. As energy systems shift toward greater electrification and reliance on renewable generation, new challenges are emerging around resource availability, critical minerals, grid stability, and overall system reliability.
This comprehensive 3-day course examines the energy transition through a security-focused lens, providing a practical understanding of how countries and industries are responding to these evolving pressures. Participants will gain structured insights into how electrification is reshaping power systems, the growing importance of supply chains and resource constraints, and the complexities of integrating variable renewable energy at scale.
Participants will also evaluate the key solutions required to ensure secure and resilient energy systems, including energy storage, grid expansion, demand-side management, distributed energy resources, and the integration of alternative fuels such as hydrogen and e-fuels. By combining technical, market, and economic perspectives, participants will be exposed to emerging technologies and business models, enabling them to identify market opportunities, assess risks, and make more informed strategic and investment decisions in a rapidly evolving and increasingly complex energy landscape.
Q1. What is electrification in the energy transition?
A: Electrification means using electricity instead of fossil fuels in transport, buildings, and industry. It supports lower emissions and better efficiency. It also changes how energy systems operate. In Electrification and Energy Security for a Resilient Energy Future, electrification plays a central role. However, it only works well when grids, storage, and supply chains grow at the same pace.
Q2. Why does electrification matter for energy security?
A: Electrification can strengthen energy security because it reduces reliance on imported fuels. For example, countries can use local solar, wind, hydro, or nuclear power. As a result, they face less exposure to fuel price shocks. Yet higher power demand creates new pressure on grids and generation. So, Electrification and Energy Security for a Resilient Energy Future depends on both clean power and reliable infrastructure.
Q3. What are the main challenges of electrifying energy systems?
A: The biggest challenges include grid limits, high investment needs, and supply chain risks. In addition, variable renewable power makes system balancing harder. Critical minerals such as lithium, copper, and rare earths also affect project speed and cost. Some sectors still face technical barriers. Therefore, successful electrification needs strong planning, stable policy, and coordinated infrastructure development.
Q4. How do grids and storage support electrification?
A: Grids and storage keep an electrified system stable and flexible. Grids move power to homes, businesses, and industry. Storage helps manage peaks and smooth renewable output. As a result, operators can improve reliability and reduce system stress. Demand-side management also helps by shifting electricity use to off-peak periods. Together, these tools support a more resilient energy future.
Q5. Why are critical minerals important for energy security?
A: Critical minerals support batteries, wind turbines, solar systems, and power networks. So, they now shape modern energy security. Supply can become a risk when mining, processing, or manufacturing stays concentrated in a few countries. In addition, environmental and permitting issues can slow new projects. Therefore, resilient energy systems need diversified supply chains, recycling, and long-term resource planning.
Q6. How does direct electrification compare with hydrogen and e-fuels?
A: Direct electrification often delivers higher efficiency and lower losses. For example, EVs and heat pumps usually use energy more effectively than fuel-based alternatives. However, hydrogen and e-fuels still matter in aviation, shipping, and some heavy industries. These sectors need higher energy density or specific fuel properties. So, both approaches will likely support a resilient energy future.
Q7. What is the future outlook for electrification and energy security?
A: The outlook points to faster electricity demand growth and more focus on resilience. EVs, data centers, cooling, and electric industry will all raise power use. At the same time, countries will invest more in grids, storage, distributed energy, and flexible demand. Therefore, future systems will combine electrification, clean fuels, and stronger infrastructure to improve security and reliability.