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LR workshop lends impetus to hybrid-nuclear SLV

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Multinational team to build US Coast Guard icebreaker

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An extra deck for 'Stena Foreteller'

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Robotics key to UK offshore wind growth

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Barging into greener territory

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Sixth AAL Super B-class heavy-lifter ready for action

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Low-NOx tug on order for New Zealand

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Metal Shark fireboat to boost safety in Tampa Bay

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'Carbon Destroyer 1' launched as 'virtual CO2 pipeline'

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New firefighter signs up for duty in Singapore

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CORPORATE PARTNERS

A touch of SES know-how for offshore Angola
Canada gears up for River-class destroyers
UK and Japan unite to fine-tune floating offshore wind future
All-electric overhaul for car ferry 'MF Hamlet'
IHC Dredging secures Indonesian order
Using AI to fast-track maritime nuclear licensing
Ship repair and retrofit trends boost Seatrium
SPONSORED: FleetguardFIT™ Reduces Service Cost by 50% for Marine Customer
Alt-fuel adoption on the ascent, DNV notes
Green Marine dives deep with new subsea-focused investment
Fincantieri stacks up cruise build and repair work
New Logistics Support Ship designs from Damen
Call for UK to exploit 'unique' nuclear opportunity
Build it smart: UK yards must tackle AI and robotics skills gap
Heavy-lift muscle for Japanese wind farms
Four more Type 212CD subs for German Navy
Drones partner up for subsea asset checks
"Significant milestone" for homebuilt Indian Navy vessels
New IACS recommendation for shore-to-ship power
Damen repair division invests further in sustainability

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Italy’s Fincantieri, one of Europe’s premier cruise shipbuilders, has achieved considerable success of late in this sector. Recently, its Monfalcone shipyard delivered the 160,000gt Mein Schiff Relax, the first of two environmentally friendly InTUItion-class cruise ships with dual-fuel (LNG and MGO) capability that Fincantieri is building for this shipowner. The sister ship will set sail in mid-2026.

The new design features: catalytic converters meeting Euro 6 emissions standards; a generative turbine, using the residual heat from the diesel generators; and an electrical shore-power connection. The vessel is also equipped with an innovative waste treatment system capable of transforming organic materials into recyclable components through a thermal process.

Fincantieri also confirms that a letter of intent signed with Norwegian Cruise Line (NCL) last year has been converted into a firm order for four new cruise ships, each approximately 226,000gt. These vessels, the largest ever built for NCL, will also be constructed at Fincantieri’s Monfalcone yard, with deliveries scheduled for 2030, 2032, 2034 and 2036. This order strengthens the long-standing partnership between Fincantieri and NCL, with Norwegian Aqua, the first unit in the Prima Plus class, set for delivery in the next few months. Additionally, three other vessels are currently in various stages of design and construction.

Alongside its thriving cruise newbuilding activities, Fincantieri has been busy in recent months with several significant vessel refit and upgrade projects. In September 2024, the company completed an important drydock project, including the overhaul of the davits and thruster, and the refurbishment of the laundry, on the Princess Cruises Island Princess. Then, from October to November, Fincantieri undertook a complex engine room overhaul aboard Caribbean Princess in Palermo. Additionally, it carried out mechanical work on the propulsion system, and significant engine maintenance for Costa Deliziosa in its Trieste yard. Then, towards the end of 2024, Fincantieri completed essential maintenance, and five-year class checks, for Virgin Voyages’ Scarlet Lady in Palermo.

Many of these cruise refit and repair projects have had a clear environmental focus. A notable example involved the installation of the advanced wastewater system for Silversea Cruises’ Silver Whisper in Trieste. Furthermore, on many projects, Fincantieri applied silicone paint to reduce friction, save fuel and make the vessels’ cruises more energy-efficient. Fincantieri also has a contract to implement high-voltage shore connection (HVSC) systems on four cruise ships to enable them to shut down their engines during port stays, and is carrying out engineering studies to assess the viability of retrofitting existing cruise vessels to run on methanol or HVO.

Now, Fincantieri seems set to enjoy another busy year for its cruise refit activities. In March and April 2025, it plans back-to-back drydockings of Majestic Princess and Emerald Princess, including five-year class special surveys, hull blasting and silicone painting, thruster and stabiliser overhauls, scrubber work, steel repairs and the installation of new air lubrication and membrane bioreactor systems. The work will also include Americans with Disabilities Act (ADA)-associated upgrades for cabins and public spaces. All of these work packages will be undertaken at Fincantieri’s Palermo shipyard.

In Q3 2025, MSC Lirica and Viking Sea will visit Fincantieri yards for special class survey renewals and planned maintenance activities, while, in November, Silver Muse will undergo a series of conversions and modifications, together with scheduled maintenance works, in Palermo.

Fincantieri is currently investing to enhance its logistics capabilities for cruise projects in Trieste and Palermo, with the aim of improving warehousing, materials handling, maintenance scheduling and transportation for both inbound and outbound logistics. These investments are expected to lead to greater operational efficiency, minimise waste and ensure timely deliveries for clients and suppliers. Additionally, the company is strengthening its Miami subsidiary, Fincantieri Services USA, to provide cruise operators with quick responses to their specific requirements, including ship inspections and onboard assistance for repair and refurbishment activities in North America.

Damen Shipyards Group has unveiled a new range of naval support vessels. The Logistics Support Ship (LSS) design consists of two vessel types, the LSS 9000 and LSS 11000, which are 127m and 140m in length respectively.

“The vessels will be equipped with NATO-standard replenishment-at-sea technology, and will have roll-on/roll-off capability and substantial cargo transportation capacity,” says Damen. They are designed to facilitate the efficient transfer and transport of fuel, munitions, provisions, personnel and other essential supplies, enabling fleets to remain operational during extended deployments.

Damen adds: “With a modular design, the LSS can be easily and rapidly configured and upgraded for special operational requirements, such as disaster relief, humanitarian assistance and training exercises.

“A key feature of the LSS is the ability to operate in diverse maritime environments, from the open ocean to littoral waters. This versatility arises from an advanced design and engineering process and the combination of both military and commercial technology, a combination that helps to reduce OPEX and CAPEX.”

In addition to operational efficiency, and in line with the ambitions of many navies, the LSS design has a focus on sustainability, with the vessels fitted with propulsions systems that will reduce fuel consumption and emissions.

Damen commercial manager for defence and security Piet van Rooij says: “We have developed the LSS based on discussions with our naval clients around the world. As such, we are confident they represent an appropriate response to the operational challenges they are facing, now and in the future. The LSS offers enhanced capabilities, efficiency and sustainability at a very competitive price.”

A report jointly issued by tech firm CORE POWER, marine insurer NorthStandard and class society Lloyd’s Register (LR) paints an optimistic picture for the safe development and installation of small nuclear reactors aboard commercial ships and floating nuclear power plants (FNPPs) in the UK – provided the government gets behind the effort.

The paper, entitled Advanced Maritime Nuclear: A Unique Opportunity for the UK, argues that the Department for Transport must incorporate nuclear-fuelled vessels and FNPPs into an updated version of its Clean Maritime Plan, to meet IMO greenhouse gas (GHG) emissions reduction targets and to benefit from a £2.5 trillion economic opportunity, potentially revitalising the UK shipbuilding segment.

Over the past five years, attitudes toward using nuclear energy as ship’s fuel have shifted significantly. Since the 1950s, nuclear reactors have powered multiple warships and submarines. However, the concept of installing small reactors aboard commercial vessels, such as ferries, cruise ships, OSVs or superyachts, was generally discounted, largely because of nuclear power’s ‘bad’ reputation.

However, rising energy costs, plus growing doubts about the accessibility of alternative fuels such as hydrogen, HVO, methanol and ammonia, have sparked new interest in nuclear energy for ships. A small but growing band of shipping professionals now view the deployment of small modular reactors aboard commercial vessels as one of the most likely means of meeting IMO’s plan to realise net-zero greenhouse gas emissions from international shipping by 2050.

Additionally, at COP 28, hosted in Dubai in 2023, the UK pledged to triple nuclear energy generation with the launch of its Civil Nuclear Roadmap to 2050 – a publication that included nuclear-fuelled ships on the agenda. In December 2022, the UK’s Merchant Shipping (Nuclear Ships) Regulations came into effect, accompanied by Marine Guidance Note on nuclear ships MGN 679 (M), which addresses areas such as safety assessments, design and construction, radiation safety and reactor installation suitability.

In the foreword to the recent joint paper, British hereditary peer and shipbroker Lord Mountevans writes: “The UK has the skills, expertise and history of innovation to lead the development of nuclear-powered shipping. By leveraging our decades of experience with small reactors for the Royal Navy, we can decarbonise maritime transport, create jobs and strengthen Britain’s position as a clean energy world power. This is a unique opportunity for the UK.”

The paper also proposes that nuclear-powered ships could feed energy back into land-based grids, providing electricity to homes and ports, as well as to areas affected by power blackouts. “FNPPs could also be used to alleviate the issues surrounding shore power and expensive connections to the UK national grid,” the authors state.

Outstanding insurance and regulatory gaps must also be addressed, though, the paper notes. Paul Jennings, MD of NorthStandard, comments: “The ability to commercially insure nuclear-propelled ships will be vital to the success of bringing nuclear to maritime. It is important that governments understand the need for a civil marine nuclear liability convention within the framework of IMO and work towards creating an appropriate liability regime.”

Jennings is echoed by Andy McKeran, LR’s chief commercial officer, who says: “Global regulatory alignment is crucial. Existing frameworks must be updated to reflect modern reactor designs and operational needs. The UK has the expertise to lead these efforts at IMO and with the International Atomic Energy Agency [IAEA], setting the foundation for safe, insurable and scalable nuclear-powered shipping.”

Meanwhile, CORE POWER CEO Mikal Bøe remarks: “Maritime nuclear is the catalyst that can reverse the trajectory of the British shipping sector, creating unique competition to Chinese shipbuilding and ocean transport.” He warns: “Over time, the cost of inaction will far outweigh the cost of being the champion in this rapidly emerging market.”

 

The March issue of The Naval Architect features an interview with pro-nuclear advocate Dr Jonathan Stephens, manager, core design at BWX Technologies, assessing the current and future viability of small reactor installations aboard various vessel types and FNPPs

The UK shipbuilding sector needs to address significant skills shortages in AI, robotics and automation if it is to thrive in the long term, a report from National Manufacturing Institute Scotland (NMIS) claims.

The report outlines the need to further adopt these three emerging technologies to enhance operations such as welding, joining and inspections in confined or hazardous spaces.

“The roles of some welders will evolve to combine traditional skills with expertise in new technologies and materials, as advanced technologies such as robotics and additive manufacturing are integrated into operations,” NMIS writes.

Greg Cranstoun, industry and skills engagement lead at NMIS, comments: “Scotland has a deep-rooted history of shipbuilding, particularly on the Clyde, but the challenges of a skills shortage apply to the whole of the UK.”

NMIS notes that, in 2022, shipbuilding contributed £3.1 billion to the UK economy, supporting more than 44,600 jobs. That year also marked the introduction of the National Shipbuilding Strategy, which has called for a 50% reduction in the UK sector’s skills shortage by 2030.

“We need to ensure we have the right people with the right skills lined up to meet demand,” says Cranstoun. “Technology is only going to become more prevalent as the adoption of AI and robotics increases in all sectors, and there are significant gains that could come from using advanced equipment to improve both health and safety and productivity in shipyards.

“Manufacturers need to think ahead to the types of roles this will create, and how to equip the current workforce and future employees with the skills to take this forward.”

As for how to get there, the report calls for a “collaborative approach between industry and training providers, to design programmes that prepare workers for these hybrid roles”. This approach would include the updating (and tailoring) of existing training courses for relevance, and the development of new training courses. Stakeholders should also drive new educational standards and targeted curricula while implementing short courses and continuous professional development (CPD) programmes to plug current knowledge and skills gaps.

The report also recommends the creation of new job descriptions, including (but not limited to): quality control inspector in shipbuilding; robotics integration engineer; welding engineer; industrial equipment maintenance technician; and robotics systems design and implementation engineer, for example. These newly defined roles should help manufacturers to evaluate gaps between existing roles and future requirements, the report opines.

NMIS, which is operated by the University of Strathclyde, collaborated with Innovate UK’s Workforce Foresighting Hub to produce the report, drawing on the latter’s advanced AI tools and workshop and survey findings to capture and analyse the data. NMIS adds that these collated insights could also be adopted and acted on by other sectors, including offshore wind and oil and gas.

Meanwhile, Mantas Lukauskas, self-styled ‘AI evangelist’ at neoxis.ai, says that the current “AI gold rush era” has accelerated developments in AI and machine learning to the extent that some companies may struggle to keep up with the pace of change.

“The more models appear, the harder it becomes to keep track of them all, let alone experiment and deploy them effectively,” Lukauskas says. “However, the multi-model ambitions quickly become technically and logistically complex.” He warns that the AI landscape “will only get more crowded” in the run-up to 2030.

Lukaskaus recommends weighing up considerations such as complexity, security and compliance, performance variance and cost before committing to new AI or machine-learning tech. The best solution may be to rely on a centralised platform that can speak to multiple providers via a single interface, he continues, adding: “The real competitive advantage is to stay nimble.”

Ulstein Design & Solutions has been contracted to provide the design for a heavy-lift ship for Japanese contractor Penta-Ocean Construction (POC). The vessel will specialise in offshore wind foundation installation work within the country’s waters, and will comprise a customised version of Ulstein’s HX118 design, which features a length of 215m, a 56m beam and a maximum draught of between 7.5-10m.

The customised design includes a tub-mounted, revolving, 5,000tonne-capacity Huisman main crane, permitting heavy-duty monopile installations. The crane comes with a main hoist and a universal quick connector, and has been designed with a compact tail swing, to optimise available deck space. Huisman will also supply the ship’s monopile-handling system, which features a motion-compensated pile gripper.

Ulstein has also incorporated its U-STERN concept into the vessel’s design. The U-STERN enables longitudinal storage of large components, such as monopiles, meaning these components can be stored along the length of the ship rather than across it, thereby maximising space and preventing overhanging.

When it’s time to install these components, the U-STERN enables them to be upended (lifted vertically) directly along the ship’s centreline. The U-STERN design also allows the ship to face directly into the waves during the installation process, reducing the impact of wave motion on the ship, to make the installation process smoother and safer – as well as to reduce fuel consumption by minimising the ship’s need to compensate for wave-induced movements.

Ulstein comments: “Combining the U-STERN with transverse and longitudinal skidding systems, offshore lifts for monopiles are eliminated as the main crane is only used to support the upending and lowering of the foundation.”

Both Ulstein and POC have been tweaking the ship’s basic design since summer 2024, including a round of extensive model tests. The heavy-lifter will be built by Singapore’s Seatrium Group, with completion scheduled for May 2028 and operations set to commence in the autumn of that year, Ulstein tells The Naval Architect.

The Bundestag and the Federal Government have agreed to exercise an option to procure four more Type 212CD submarines for the German Navy. The contract for the new submarines, which are being acquired by the German Navy and Royal Norwegian Navy under a joint programme, is one of the largest secured by thyssenkrupp Marine Systems.

The deal was initialled by the president of the Bundeswehr Procurement Agency, Annette Lehnigk-Emden, and thyssenkrupp Marine Systems CEO Oliver Burkhard in late December 2024. Germany will now build six Type 212CDs. Norway has also recently signalled its intention to increase the number of submarines it builds under the joint programme from four to six.

Speaking as that deal was confirmed, Burkhard said: “A turning point in history is finally arriving in the maritime sector. We are delighted at the trust that the German government has once again placed in us with the additional order. We are making a decisive contribution to Germany’s response to changing times and strengthening our defence capabilities with this strategically important project between Germany and Norway.”

The Type 212CD submarines will be significantly more capable than the German Navy’s existing Type 212A boats, with enhanced situational awareness, superior networking with allied units and a reduced signature.

In advance of the construction of the submarines, thyssenkrupp Marine Systems has invested more than €250 million at the company’s yard in Kiel, including a new shipbuilding hall. The group has also acquired additional shipyard capacity at the former MV Werften site in Wismar, to be able to build submarines and surface vessels there at the same time.

“Our order books are well-filled and we are strongly positioned nationally and internationally,” said Burkhard, noting that now that the number of Type 212CD submarines on order has been increased, other countries could join the project in the near future. “Our strong position has now become even stronger,” he concluded.

A team-up between boatbuilder/USV manufacturer Tuco Marine and maritime survey tech company EIVA aims to establish an all-in-one autonomous package for subsea asset inspections, matching a Tuco-built ProZero 8m Naval Intelligence USV to EIVA’s ViperFish remotely operated towed vehicle (ROTV).

In practice, the USV would sail to an area of interest, towing and remotely launching the ViperFish. The ViperFish would be equipped with sensors and survey software, and would undertake high-resolution seabed imaging, with area coverage rates of 1.6km2/hr,  while using magnetic signals to monitor subsea assets, such as power cables.

Jonas Pedersen, MD of Tuco Marine, comments: “By combining…our ProZero with EIVA’s ROTV, it’s possible to monitor the conditions of critical subsea infrastructure much more thoroughly and frequently than with conventional set-ups.”

Launched in 2023, the ViperFish measures 3,200mm x 1,300mm x 620mm and is rated for depths descending to 200m. The ROTV is designed for surveys at 2-10knots, and has a reported target positioning accuracy of 1m. EIVA suggests that, when integrated with an USV, the ViperFish can also be used for mine countermeasures, rapid environmental assessment, surveillance and salvage missions.

The commissioning this week of three frontline naval vessels by the Indian Navy marks a “significant milestone in India’s shipbuilding and design capabilities”, according to analytics firm GlobalData.

January 15 saw the entries of INS Surat (163m), the fourth and final unit of the Visakhapatnam class of stealth guided-missile destroyers; INS Nilgiri (149m), the lead ship of the Nilgiri class of stealth guided-missile frigates; and INS Vagsheer (67.5m), the sixth of six Kalvari-class diesel-electric submarines. The vessels were constructed by Mazagon Dock Shipbuilders Limited (MDL), Mumbai.

Rithik Rao, aerospace and defence analyst at GlobalData, writes: “Armed with advanced weaponry such as BrahMos and Barak 8 missiles, both INS Surat and INS Nilgiri provide the Indian Navy with enhanced anti-surface and anti-air warfare capabilities, excelling in both offensive and defensive roles.

“INS Vagsheer excels in a range of operations, including anti-surface and anti-submarine warfare, intelligence gathering and area surveillance. Together, these domestically built platforms demonstrate India’s growing competence in developing cutting-edge naval technologies, thereby strengthening its maritime security and reinforcing its strategic autonomy in defence production.”

Rao adds that India has felt the need to step up its naval defence capabilities due to “the increasing maritime presence” of the Chinese People’s Liberation Army Navy (PLA Navy) in the Indian Ocean Region. “[India] is trying to catch up with its Chinese counterparts in terms of quantity and technology advancements,” Rao says. GlobalData has forecast that India will spend just over US$35 billion on various domestically built naval vessels and subs in the run-up to 2029.

“Shipbuilders such as MDL stand to benefit significantly, leveraging the expertise gained from constructing complex naval platforms,” says Rao. “Such advancements will lay a strong foundation for future collaborations between major domestic defence contractors and many small and medium suppliers in upcoming next-generation submarine and naval vessel construction programmes, ensuring the Indian Navy remains well-equipped to meet evolving challenges in the upcoming decades.”

Speaking at the commissioning ceremony, Indian prime minister Narender Modi commented: “I am happy that our Navy has expanded the ‘Make In India’ campaign to a great extent. In the last 10 years, 33 ships and seven submarines have been inducted into the Indian Navy. Out of these 40 naval vessels, 39 have been built in Indian shipyards.

“Along with increasing the strength of the Indian armed forces, ‘Make In India’ is also opening new doors of economic progress. The shipbuilding ecosystem is an example. Experts also say that the more investment is made in shipbuilding, the more positive impact it has on the economy.”

The International Association of Classification Societies (IACS) has published a new recommendation, titled Rec. 182, to provide a “comprehensive framework” to support the adoption of onshore power supply (OPS) systems.

Rec. 182 was drawn up to provide “detailed guidance for ship designers, builders, operators and owners on integrating OPS systems into both newbuilds and retrofits, while addressing the technical and operational challenges associated with its implementation”, IACS states. The recommendation is intended to complement IMO’s MSC.1/Circ.1675 – Interim Guidelines on the Safe Operation of OPS Service in Port for Ships Engaged on International Voyages, IACS adds.

Subsequently, Rec. 182 outlines aspects such as: ship requirements for OPS; ship-to-shore connection protocols, with an emphasis on safe connection and disconnection; and testing procedures, for both the first connection and periodic check-ups. IACS states: “At the first call at a shore supply point, ships should undergo mandatory tests, including visual inspections, insulation resistance measurements, functional tests of protection devices and integration tests, to ensure proper operation between ship and shore installations.

“If the time between repeated port calls does not exceed 12 months and no modifications have been made, only limited verification tests are required. However, if the interval exceeds 12 months, comprehensive testing as outlined in the document should be conducted.”

Rec. 182 also covers operational safety measures, including the use of suitable PPE, plus ensuring “effective communication” between shipboard crew and shoreside personnel during connection/disconnection procedures. Documentation of OPS operation procedures – which would include circuit diagrams, compatibility assessments and emergency shutdown protocols – is also underscored in the recommendation, as is a pre-connection safety checklist.

IACS says: “The shift towards decarbonisation has placed a spotlight on reducing emissions from seagoing vessels while at ports, where vessels often rely on auxiliary engines that contribute to greenhouse gas [GHG] emissions. OPS, commonly referred to as ‘cold ironing’ or shore-to-ship power, has emerged as a promising solution, allowing vessels to connect to a land-based electrical grid while at berth, enabling their onboard generators to be switched off.” Cold ironing has been credited with significantly cuttting NOx and SOx emissions, plus particulate matter (PM) levels, in port areas, enabling the future development of sustainable ports.

Rec. 182 can be accessed at the IACS website.

Damen Shiprepair Oranjewerf is strengthening its commitment to green ship repair, maintenance, conversion and refit projects with a recent shore power installation. The yard had already installed a shore power unit which was suited to many of its projects. However, with this latest installation, developed by Elma Systems, the availability of clean onshore power, converted to 60Hz, has been widened to cover all types of vessel that call at the yard.

Commercial manager Jeen van der Werf explains: “Previously, we were able to provide shore power at 50Hz. However, we get a lot of offshore, navy and fishing vessels come to the yard for work, and many of these vessels operate on 60Hz.” As a result, he says, the yard often had to hire in a diesel-powered generator; something the company was keen to avoid.

Damen Shiprepair Oranjewerf began discussions with Elma Systems to address this issue. Together, the two companies set about the development of a solution that was more in tune with the yard’s needs, and Elma came up with a rotary convertor, which converts the shore power to the desired 60Hz rating.

The shore power system, which is installed on the yard’s floating dock, can support up to 250kVA. Should more power be required, there is an option to add a battery or secondary power source. The Elma-designed rotary converter is therefore also equipped with a load sharing system.

With this new shore power system now fully operational, Damen Shiprepair Oranjewerf expects to significantly reduce its carbon emissions. As an additional benefit, the wider use of shore power means that the yard no longer has to hire in costly diesel generators, and is, therefore, able to offer its clients a more competitively priced project.

Frequently Asked Questions

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Frequently Asked Questions

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LR workshop lends impetus to hybrid-nuclear SLV

A collaboration between class society Lloyd’s Register (LR), nuclear battery manufacturer Deployable Energy and naval architect Seatransport aims to realise a 73m-long, hybrid-powered stern landing vessel (SLV) incorporating two modular micro reactors (MMRs), in what may prove a step forward for the use of nuclear energy at sea.

The SLV project was given renewed focus after LR and its partners conducted a hazard identification workshop to assess the risks related to the installation of MMR technology aboard ships. The workshop, which was hosted at Seatransport’s HQ in Australia, focused on risk management strategies, regulatory frameworks, safety systems and vessel design – and shared “key insights into the feasibility and requirements for operational readiness once the vessel meets nuclear licensing requirements”, LR says.

The proposed SLV would have the ability to supply power to Pacific islands hit by cyclones and resulting energy blackouts. Seatransport comments: “At 14knots, the MMR-powered vessel can cover the region quickly and provide power to stricken areas to aid rescue efforts.” The SLV would also carry 84 container units, which could be repurposed as medical stations, sleeping areas and toilets for 750 people.

Besides emergencies, the SLV’s MMRs would be used to provide energy to islands and remote areas, helping their residents to reduce their dependence on costly diesel imports. Seatransport says: “For remote areas visited regularly, a simple concrete ramp and berthing pile should be installed.” However, the company adds, “cyclone-proof mini-ports” should also be constructed to shield the SLV from rough weather conditions when it is positioned alongside, supplying power to the grid.

The partners claim the MMRs will enable the vessel to operate for eight to 10 years without the need to refuel. Dr Stuart Ballantyne, Seatransport chairman, adds: “I believe [nuclear propulsion] for commercial ships…is within reach and will be commonplace by 2030.”

Houston-based Deployable Energy, meanwhile, is developing its Unity nuclear battery, intended to generate 1MW of electrical power. Physically, the Unity-powered MMR has been designed to fit inside a standard 20’ shipping container, making it transportable by truck, ship or cargo aircraft. Described as a “plug-and-play system”, it has been developed for rapid set-up and deployment, reportedly taking no more than three days to install.

Bobby Gallagher, Deployable Energy CEO/CTO, comments: “Powered by our Unity nuclear battery, this next-generation vessel runs cheaper than conventionally fuelled ships, using safe, standard fuel with no exotic materials.” Looking beyond this project, Gallagher adds: “Our target is to have 100,000 nuclear batteries deployed by 2040, with a delivered cost of US$0.05 per kWh.”

LR will provide approval in principle (AiP) to the finalised design.

Multinational team to build US Coast Guard icebreaker

An industry team comprising Bollinger Shipyards, Rauma Shipyard, Seaspan Shipyards and Aker Arctic have formed a partnership to deliver the Arctic Security Cutter (ASC) for the US Coast Guard (USCG).

Bollinger says the partnership is “a deliberate effort to strengthen the US industrial base, expand America’s shipbuilding capacity and equip American workers with the skills to lead in a new era of strategic competition through the transfer of knowledge, technology and design expertise needed to build the next generation of icebreakers in the US”. Rauma Shipyards president Mika Nieminen says: “We are prepared to begin construction immediately, leveraging a mature design and deep experience in building technically complex vessels for operation in severe winter conditions.”

Bollinger is the largest privately owned shipbuilder in the US and is building the first heavy icebreaker in the US in 50 years. It has built nearly 200 vessels for the USCG. Rauma is known globally as an ice-class shipyard. Seaspan Shipyards is the Canadian subsidiary of US-based Washington Companies and is currently delivering the largest orderbook of ice-capable vessels in the world. Aker Arctic developed most of icebreaking designs currently in operation.

Bollinger says the MPI design meets USCG requirements, exceeds all ASC requirements and supports all 11 statutory missions assigned to the vessel. With the ability to break 1.2m of ice, the vessel has a range of 12,000nm and can operate for more than 60 days. The consortium says all other designs proposed for the ASC would require significant investment and corresponding ramp-up time, creating risk for schedule, cost and delivery delay.

The partnership leverages the trilateral ‘ICE Pact’ framework between the US, Canada and Finland to answer President Trump’s call to rapidly build a new US icebreaking fleet, with delivery of the first vessel within 36 months of award.

An extra deck for 'Stena Foreteller'

North Sea ferry Stena Foreteller recently returned to service on the Rotterdam-Immingham route following a major rebuild and renovation project, including an additional new cargo deck providing a 30% increase in capacity.

Stena RoRo undertook the work at CMI Jinling in Weihai, China, where the vessel was fitted with a fourth vehicle deck on top of the existing three, increasing freight capacity from 3,000 to 4,000 lane metres.

The vessel has also been equipped with a shore power connection system, which will reduce CO2 emissions while in port. Due to the additional deck, the wind exposed area has increased, placing greater demands on the vessel’s manoeuvrability and mooring. As a result, the bow thrusters have been upgraded for increased capacity, and additional mooring winches have been installed.

Furthermore, minor repairs and preventive maintenance have been carried out, and some onboard systems have been upgraded to newer versions. As part of the rebuild, Stena Line has also repainted the vessel.

Stena Forerunner, the sister ship of Stena Foreteller, will undergo the same rebuild starting at the end of summer.

Robotics key to UK offshore wind growth

The UK offshore wind industry must exploit robotics and autonomous systems to the hilt if it is to thrive, according to a report issued by the Offshore Renewable Energy (ORE) Catapult.

Titled Robotic & Autonomous Systems For Operations and Maintenance In UK Offshore Wind, the report, produced in partnership with Innovate UK’s Workforce Foresighting Hub and sponsored by RenewableUK, claims that robotics provide “an efficient alternative” to personnel working offshore, especially for tasks such as turbine blade inspections.  

“There are currently 30,000 blades at UK offshore and onshore wind farms,” says ORE Catapult, pointing out the additional presence of “10 million bolts” that must be regularly checked for “loss of tension and integrity”. ORE Catapult adds: “There are 40,000 people currently working in the offshore wind industry. To meet the UK’s Clean Power 2030 targets, this workforce is forecast to increase to at least 74,000. A big uplift in the development of robotics and autonomous systems is required, alongside a workforce that has the skills to realise its full potential.” 

Scott Young, RenewableUK’s head of skills, says: “The UK is set to ramp up offshore wind deployment significantly in the years ahead to meet the government’s targets of clean power by 2030 and net zero by 2050. We will be building new projects in deeper and more remote waters where using state-of-the-art robotics is the safest option, and therefore the most appropriate course of action.”

The report calls for expanded robotics content in existing college courses and greater opportunities for on-the-job training in this field. It also urges increased industry collaboration, recommending that turbine manufacturers and wind farm developers work more closely with robotics designers to optimise operations.

The report can be downloaded for free at the https://ore.catapult.org.uk/

Barging into greener territory

Tristar Eco Voyager, a new type of bunker tanker built in Turkey by Akdeniz Shipyard, was recently been delivered to UAE-based Tristar Eships. The company will deploy the vessel out of Fujairah, where it will be well positioned to meet the lube oil needs of vessels at the nearby anchorage. 

The new hybrid, battery-driven lube oil barge is commencing operations in the UAE in July. The 46.5m-long, 9.5m-beam and 3m-draught vessel will have a 730m3 bunker fuel capacity and an estimated service speed of 10knots. The Bureau Veritas (BV)-classed vessel is the first hybrid tanker to operate in the Middle East Gulf, and is expected to lower carbon emissions significantly compared to existing tonnage deployed by the company. 

The vessel can run on MGO, biofuel or battery power. This not only adds to operational redundancy but also enhances sustainability through the reduction of carbon emissions. Tristar has installed a 1.4MW battery from Yinson EV on board, and in routine operations it is expected that this will last for six to eight hours before needing recharging, depending on weather conditions and the precise nature of the operation. The battery will take around eight hours to charge up to about 95% capacity, and this should permit the vessel to make two bunker deliveries a day on battery power alone.

The battery will be used for propulsion as well as for the hotel load on board the vessel, which has the capacity for 10 crew members. The vessel has been designed so that it can operate on battery alone, diesel fuel alone or a combination of both. A propulsion motor, supplied by Danfoss, has been installed to offer a high degree of redundancy, supported by two 300kW Volvo Penta gensets. Tristar has opted not to have a main engine on the vessel, with the propulsion motor using power from either the gensets or the battery to propel the tanker. Tristar has calculated that there will be a carbon emissions reduction of more than 50% compared to conventional vessels of this type. Moreover, if operated on B-100 biofuel, this could be increased to a 100% reduction in emissions. 

While the core element of the design, in terms of sustainability, is the battery power provision, the vessel has been designed following CFD tests to ensure minimum drag and high levels of efficiency for its class. BV has added the notations ‘PM’ (power management) and ‘ZE’ (zero emissions) to the standard notations of a vessel of this type.

Sixth AAL Super B-class heavy-lifter ready for action

Heavy-lift vessel operator AAL Shipping (AAL) says it is preparing to take delivery of the sixth in a series of eight Super B-class “powerhouses”. The 179.9m x 30m, 32,000dwt methanol-ready vessel, christened AAL Dammam in a naming ceremony hosted at the Guangzhou facility of Chinese builder (and long-standing AAL collaborator) CSSC Huangpu Wenchong Shipbuilding, is designed to handle various multipurpose cargoes, including heavy-lift project components, breakbulk and dry bulk, on a single voyage.

AAL Dammam has a depth of 15.5m and draws 6.5m. The 41,500m3 vessel can accommodate more than 100,000 freight tonnes of breakbulk and heavy-lift cargo, and is fitted with three 350tonne-capacity heavy-lift cranes, which can be combined to handle a maximum of 700tonnes. AAL says: “Two large, box-shaped cargo holds are optimised for dry bulk, featuring adjustable pontoon triple decks and no centreline bulkhead.”

The seventh and eighth Super B units on order, AAL Newcastle and AAL Mumbai, are scheduled for delivery from CSSC Huangpu Wenchong Shipbuilding in 2026, though each will feature a higher maximum lift capability of 800tonnes.

Kyriacos Panayides, AAL CEO, comments: “Whilst the current geopolitical landscape makes short-term planning extremely difficult, the long-term forecast for the global industrial sector…is nevertheless strong. Global industry is experiencing record levels of capital input, with clean-energy investment alone expected to hit US$2.2 trillion in 2025, according to the International Energy Agency. And, whilst renewables continue to lead new project activity, we are not dependent on a simple ‘fossil-to-clean’ shift for cargo volumes, but rather a layered build-out across all industrial energy and resource sectors.

“Oil and gas project development is forecasted to grow to US$9.9 trillion by 2029, with LNG a bright spot featuring multiple export projects in the US, Qatar and Canada due online by 2026–2028. The mining sector too remains strong, with over 5,400 mining projects valued at US$406 billion scheduled to start construction by the end of 2025.”

Low-NOx tug on order for New Zealand

Damen Shipyards Group is to construct an ASD Tug 2312 unit for Port Marlborough New Zealand (PMNZ), which will use the newbuild to provide towage services at Picton Harbour, where approximately 3,000 vessels call annually. The tug, to be named Kaiaua, will work alongside an existing ASD Tug 2111 type, Kaiana, which Damen delivered to PMNZ in 2024.

The ASD Tug 2312 type features a length overall of 22.8m, a breadth overall of 12.03m, a depth of 4.4m and a draught of 5.6m. This model also has a bollard pull capability of 70tonnes ahead and 65tonnes astern, and can achieve a speed of 12.4knots, utilising twin Caterpillar 3512C engines (rated a combined 3,804bkW) and Kongsberg Maritime US 205S FP azimuthing thrusters.  

Part of Damen’s ‘Compact Tugs’ series, the class is arranged for 360° visibility from the wheelhouse and clutter-free decks. Kaiaua will also be equipped with a single winch for both fore and aft operations, installed in the deckhouse to protect it from the elements.

Damen has outfitted the vessel with its own selective catalytic reduction (SCR) system, the Marine NOx Reduction System, which, it says, can reduce NOx emissions by up to 80%, enabling compliance with IMO Tier III requirements. Damen adds: “Although the regulations do not yet apply in New Zealand, PMNZ has committed to providing a more sustainable operation.” PMNZ CEO Rhys Welbourn comments: “This customer-led investment strengthens our ability to respond quickly, assist effectively and support shipping partners making use of the deepest berth in New Zealand. The upgrade to IMO Tier III engines also reinforces our commitment to lowering emissions and operating responsibly.”

Metal Shark fireboat to boost safety in Tampa Bay

Tampa Fire Rescue, Florida has taken delivery of a monohull fireboat, designed and built by Metal Shark of Louisiana. The newbuild is the first of two sisters for Tampa Fire Rescue, with the second vessel due for delivery in 2026.

Both boats are of Metal Shark’s 38 Defiant NXT class, which features a length of 12.2m, a 3.66m beam and a hull, deck and superstructure built from corrosion-resistant, welded 5086 aluminium-magnesium alloy plates. Each boat is powered by triple Yamaha outboards, offering a combined output of just over 670kW, and incorporates Yamaha’s HelmMaster controls and joystick operability, for enhanced manoeuvrability in tight spots. The latter was deemed crucial as the boat will be navigating “all waters of Tampa Bay, from downtown Tampa to the barrier island of Egmont Key”, Metal Shark explains. The fireboat will also undertake search and rescue missions across this expanse.

Onboard features include the builder’s NXT emergency medical services (EMS) response cabin, which houses three shock-mitigating crew seats, supplied by SHOXS, plus an EMS bench, firefighting control stations and diver/responder gear storage space. The boat has also been equipped with a chemical, biological, radiological, nuclear and high-yield explosive (CBRNE) detection system, provided by Honeywell, and a cabin filtration and pressurisation package from HDT Global.

The boat is powered by triple Yamaha outboards, offering a combined output of just over 670kW

The boat also features: a urethane-covered, closed-cell foam collar; a dive/rescue ladder; full-height, hinged dive doors, port and starboard; a FLIR thermal imaging system; and storage space for self-contained breathing apparatus (SCBA) and dive tanks. Additionally, the boat has been created with non-skid walkways with low-level lighting, for night-time operations.

The boat utilises a Darley fire pump, drawing from a fully flooded sea chest, delivering 5,678litres per minute via piping and electronically controlled valves to a remote-operated monitor. Metal Shark says: “This configuration enables long-range throw for ship-to-ship and ship-to-shore operations.” The boat also features dual 2.5” handline discharges, a 5” Storz hydrant discharge (for supplying land-based apparatus) and a 150litre quick-fill foam injection system for aqueous film-forming foam (AFFF)-based fire suppression.

Metal Shark adds that it has delivered new fireboats to “over a dozen fire departments” across the US in the space of 18 months.

'Carbon Destroyer 1' launched as 'virtual CO2 pipeline'

Dutch shipyard Royal Niestern Sander has launched Carbon Destroyer 1, the first CO2 carrier to be built in Europe. The vessel is a key part of the Project Greensand carbon capture and storage project in Denmark and was described by Sir Jim Ratcliffe, chairman of global petrochemicals company INEOS, as “an important next step for carbon capture and storage in Europe…demonstrating that carbon storage is commercially viable”.

Carbon Destroyer 1 is based on Wagenborg’s EasyMax design and has been specially adapted for handling CO2 under pressure and at low temperatures. The EasyMax concept is a multipurpose vessel with a cargo capacity of 14,000tonnes, jointly developed by Royal Wagenborg and Royal Niestern Sander.

Through Project Greensand, Denmark is positioning itself as a hub for CO2 storage in Europe. Carbon Destroyer 1’s role will be to connect CO2 emitters with permanent, commercial-scale offshore CO2 storage. The vessel will transport captured CO2 from across Europe, creating a ‘virtual pipeline’ between the point of capture and permanent storage deep beneath the seabed in the North Sea. The carrier will sail regular routes from Port Esbjerg to the Nini West platform, where the CO2 will be injected for safe and permanent storage to the Nini reservoir, approximately 1,800m beneath the seabed in geological formations that have contained hydrocarbons for millions of years.

The vessel’s launch follows a series of major developments in the Greensand project. In December 2024, INEOS and its partners Harbour Energy and Nordsøfonden took a final investment decision to move ahead with full-scale CO2 storage operations in the Nini Field. The project’s initial phase targets the permanent storage of 400,000tonnes of CO2 annually, with the potential to scale up to 8 million tonnes per year by 2030. The vessel is expected to be fully operational by the end of 2025 or early 2026, when Project Greensand is due to begin permanent commercial scale CO2 storage operations.

At the Port of Esbjerg in Denmark, construction is currently underway on a new CO2 terminal, which will serve as the onshore hub for receiving, storing, and loading liquefied CO2 onto the vessel. Once established, the terminal will include six large storage tanks and essential infrastructure to support continuous and scalable CO2 transport to the offshore storage site.

New firefighter signs up for duty in Singapore

Naval architect and designer BMT and Singapore-based boatbuilder Penguin Shipyard International have delivered a fire and rescue vessel to the Singapore Civil Defence Force (SCDF). The Blue Dolphin MFV-R (standing for ‘multi-role fire vessels – rescue’) is the first of two 38m sisters for the SCDF, each featuring an aluminium monohull and an external firefighting system comprising three fire monitors and three pumps, capable of delivering a combined flow rate of 3,600m3 per hour.  

Described as an evolution of the Red Dolphin MFV-R, which BMT and Penguin produced for the SCDF in 2019, the new vessel has 12,000litres of firefighting foam capacity. BMT comments: “This is further supported by a self-protection water curtain, giving the vessel a fully redundant and highly capable firefighting configuration that exceeds standard FiFi Class 1 requirements.”

The vessel also houses advanced chemical, biological and radiological (CBR) protection systems, plus a decontamination room, a first aid station and a rescue lounge for up to 30 survivors and eight firefighters. Infrared sensors enable the detection and classification of chemical warfare agents and toxic industrial chemicals at a range of up to 5km, BMT adds.  

The Blue Dolphin MFV-R can comfortably sprint past the 30knot mark, and comes with biofuel-compatible engines and solar panel charging systems. The vessel also stores a high-speed RIB on board, which can be scrambled for search and rescue operations close to shore or in restricted waters. The ship is also equipped with a virtual anchoring system, designed to reduce the crew’s workload during station-keeping operations.  

The first Blue Dolphin MFV-R was delivered to the SCDF at a commissioning ceremony hosted at the Republic of Singapore Yacht Club, and the second sister is earmarked for delivery to the SCDF in 2027.