Energy Infrastructure

The paper provides an analysis of 19 hydrogen production methods, focusing on efficiency, cost, and environmental sustainability. It identifies the efficiency of fossil fuel reforming and the high environmental impact of non-renewable sources. Renewable methods are more sustainable but less developed. Hybrid approaches offer balanced results while further innovation is needed for truly sustainable hydrogen production.

The paper discusses Europe's transition to an interconnected, renewable-focused energy grid, emphasizing the need for smart grids, AI, flexibility markets, advanced data exchange, and interoperability. These elements are crucial for balancing supply and demand, enhancing grid efficiency, and achieving sustainability and decarbonization goals, all while facing challenges in technology, investment, and stakeholder collaboration.

The IEA's Global Conference on Energy and AI highlighted the reciprocal relationship between both fields, focusing on AI's role in optimizing energy use and enhancing renewable energy adoption, while also acknowledging AI's growing energy demands. Key discussions addressed electricity consumption by data centers, advancements in battery tech, smart grid optimization, predictive capabilities for natural disasters, and international perspectives from companies and governments on AI-driven energy strategies. The IEA stressed its commitment to providing actionable data and fostering stakeholder dialogue to align AI with energy system realities, and announced a comprehensive energy-AI report for 2025.

Global electricity demand is projected to increase, led by China and India, with renewables and nuclear supplying all growth through 2026, indicating a shift towards low-emission sources, reducing CO2 intensity, and highlighting regional disparities in access and consumption trends.

The STORMING project innovates in methane cracking for CO₂-free hydrogen and carbon nanotubes production, aligning with Hydrogen Europe's pathways for a sustainable energy transition and offering economic and environmental benefits. Challenges remain in scaling and integration into industries.

Space-based solar energy (SBSE) overcomes terrestrial solar power limitations, offering continuous, efficient energy. Despite high costs and ecological concerns, advances in technology and interest from ESA and CALTECH's SSPD indicate its promising potential for sustainable energy.

Hydrogen is emerging as a potential solution for combating climate change. But there is a need to differentiate between green hydrogen—produced renewably, essential for certain industries—and less sustainable forms like grey, black, and blue hydrogen, which have significant carbon footprints. Pink hydrogen, though less harmful, presents nuclear waste challenges.

The paper addresses the EU's transition to electric vehicles (EVs) as key in decarbonizing transport sector emissions, crucial to achieving 2040 climate targets. The EV ecosystem involves various stakeholders, including OEMs, CPOs, and DSOs, working together towards electrification. Policies like RED, AFIR, EPBD, and the Sustainable Battery Regulation support this shift, while investment in EV infrastructure is projected to significantly increase. Data sharing is emphasized as essential for ecosystem efficiency.

AI accelerates the global energy transition by optimizing grid operation, predictive maintenance, and energy efficiency, advancing R&D, and enhancing energy trading strategies, attracting investment and job creation, with associated financial opportunities and risks.