Conclusion

Battery-electric ferries have progressed from isolated pilots to a mature technology for short-sea routes, with Norway as a recognised leader. Projects like MF Ampere, E-ferry Ellen and Medstraum demonstrate that, when properly designed, electric ferries can deliver competitive lifecycle economics and substantial emissions reductions.

Autonomy for ferries has moved from conceptual studies to real-world services, notably in small urban passenger ferries. Autonomous functions such as auto-crossing and auto-docking are already in use and being scaled up. Remote control centres have emerged as critical elements, enabling multi-vessel supervision and providing a safety net for autonomous systems.

At the same time, significant gaps remain in joint safety cases for electrified MASS, RCC staffing models, cyber resilience and operator competence frameworks. Regulatory and class institutions are responding — through the IMO MASS Code work and DNV's AROS notations — but practical implementation requires operator-led innovation and careful risk management.

The Lavik-Oppedal project stands at the cutting edge of this development: large Ro-Pax ferries, fully electric, progressively autonomous, and supervised from a purpose-built control centre in Florø. Fjord1's choices in system architecture, RCC design, human factors and organisational strategy will be influential beyond Norway.

For a PhD-level research programme, Lavik-Oppedal offers a unique "living laboratory" to study and shape the interaction of electrification, autonomy and shore-based operations.