Both SHIPLYS and HySeas III draw on their core shipbuilding capability — vessel design, construction process integration, and production engineering.
FERGUSON MARINE ENGINEERING LTD
Scottish shipyard with hands-on expertise in hydrogen RoPax ferry design, manufacturing, and zero-emission maritime propulsion.
Their core work
Ferguson Marine Engineering is a Glasgow-based shipyard that designs and builds vessels, primarily ferries serving Scottish coastal and island routes. Their H2020 participation spans two distinct but complementary areas: ship lifecycle cost and performance software (SHIPLYS) and the design and manufacturing of the world's first hydrogen-powered RoPax ferry (HySeas III). As an active shipbuilder, they bring hands-on industrial manufacturing expertise into research consortia — contributing the kind of real-world vessel construction knowledge that purely academic partners cannot. Their involvement in hydrogen propulsion marks a deliberate move toward zero-emission maritime technology.
What they specialise in
HySeas III (2018–2022) aimed to realise the world's first sea-going hydrogen-powered RoPax ferry, with Ferguson contributing design and manufacturing expertise.
SHIPLYS (2016–2019) focused on ship lifecycle software solutions, giving Ferguson exposure to cost modelling and operational lifecycle methods.
Their Scottish island ferry context underpins both projects and reflects their real-world commercial focus on short-sea and RoPax ferry markets.
How they've shifted over time
In their first H2020 project (SHIPLYS, 2016–2019), Ferguson had no distinct thematic keywords recorded — they were contributing industrial know-how to a software-focused consortium without a specific technology agenda of their own. By the second project (HySeas III, 2018–2022), a clear direction emerged: hydrogen propulsion and the practical design-to-manufacturing challenges of building a zero-emission ferry. The shift is from passive industrial partner in a digital tools project to active contributor in a clean propulsion demonstrator. This is a meaningful signal — they are moving from lifecycle software consumer to hydrogen vessel builder.
Ferguson is positioning as a practical industrial partner for hydrogen maritime projects — their trajectory points toward zero-emission ferry construction and clean short-sea propulsion demonstration.
How they like to work
Ferguson has never led an H2020 project — they join as participants, contributing manufacturing and engineering expertise rather than coordinating research direction. Their two projects placed them in large, multi-country consortia (23 partners across 12 countries), suggesting they are comfortable operating within complex international partnerships. As a shipyard, their role is likely to validate and implement what research partners design, serving as the industrial anchor that grounds the project in real production constraints.
Despite only two projects, Ferguson has built a network of 23 consortium partners spanning 12 countries — an unusually broad reach for such limited H2020 activity, reflecting the large consortium sizes typical of transport infrastructure projects. Their network is European in character, likely drawing on maritime clusters in Scotland, Scandinavia, and continental shipbuilding hubs.
What sets them apart
Ferguson Marine Engineering is one of the very few active shipyards — not research institutes or consultancies — to have participated in H2020 hydrogen propulsion research. This makes them a rare bridge between academic hydrogen R&D and actual vessel manufacturing. Any consortium building a hydrogen or zero-emission maritime demonstrator would benefit from their ability to move from concept to physical construction, which most research partners cannot offer.
Highlights from their portfolio
- HySeas IIITargeted the realisation of the world's first sea-going hydrogen-powered RoPax ferry — a landmark clean maritime demonstrator in which Ferguson contributed direct design and manufacturing capability.
- SHIPLYSProvided Ferguson's entry point into EU-funded digital engineering, connecting them to ship lifecycle cost and performance modelling tools that inform modern vessel design.