Hydrogen projects are among the most complex industrial developments of our time, spanning evolving regulations, demanding safety requirements, and tightly integrated engineering and operational systems. As the industry scales from pilot installations to commercial networks, the need for continuity of information across the entire lifecycle becomes critical.

The digital twin is no longer a point solution used in isolated phases of design or operations, but a connected thread that links concept development, detailed engineering, construction, commissioning, and ongoing asset performance. By maintaining a consistent, data-driven representation of hydrogen assets, project stakeholders can make more informed decisions earlier, reduce rework, and improve collaboration across disciplines and contractors.

In operations, the value of the digital twin extends further, supporting real-time visibility, performance optimization, predictive maintenance, and safer operational practices. For hydrogen specifically, where dynamic behaviour, storage constraints, and safety margins are tightly interdependent, the ability to simulate and validate scenarios becomes a key enabler of reliability and efficiency.

This session explores how a lifecycle-centric digital twin approach can help bridge traditional silos between engineering and operations teams. It highlights practical pathways for achieving data continuity and operational readiness, enabling hydrogen projects to move more confidently from concept to sustained operation at scale.