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Estonia plans to allow sinking ships that threaten submarine cables

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According to ERR, as a last resort, the military will have the right to sink a suspicious vessel if it does not obey their orders.

“If we use armed force against someone in international waters, thereby violating freedom of navigation, then everything must be thoroughly thought out. If the Navy and Defense Forces apply this law, they must have both diplomatic justification and appropriate means, i.e., ships, weapons, as well as legislative and diplomatic support,” former Navy Commander Jüri Saska commented.

According to him, the right to sink a suspicious vessel is an extreme measure that will be used only in case of a real threat to many people’s lives or to avoid a large-scale disaster.

And even then, before the vessel is sunk, its entire crew must be evacuated.

“I don’t even know how to comment on this. If I were a ship’s commander, how am I supposed to sink a ship whose crew I evacuated myself? After all, once evacuated, it no longer poses a danger – neither to critical infrastructure nor anything else. Flooding, in this case, can pose a significant threat to the environment. Everything looks rather confusing here,” Saska noted.

On January 14, it was reported that NATO announced the launch of a new operation, Baltic Sentry, aimed at protecting the region’s maritime infrastructure.

The announcement was made during a summit of NATO’s Baltic nations with the participation of Secretary General Mark Rutte, Finnish President Alexander Stubb, and Estonian Prime Minister Kristen Michal.

During the summit, the region’s leaders discussed the growing threat to critical underwater infrastructure.

As part of Operation Baltic Sentinel, warships and aircraft provide security. The Secretary General also announced the deployment of a fleet of maritime drones.

At the end of January, the F-35A fifth-generation multi-role fighter jets of the Royal Netherlands Air Force joined the mission.

Source: Militarniy

Seaspan begins construction on heavy polar icebreaker

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Seaspan Shipyards (Seaspan) has cut steel on the Canadian Coast Guard’s (CCG) new heavy polar icebreaker, signifying the start of construction on one of the most advanced conventional polar icebreakers ever to be built. 

Measuring 158 metres long and 28 metres wide, Seaspan’s polar icebreaker will be incredibly complex, designed to operate self-sufficiently in the high-Arctic year-round. It will play a critical role in enabling the Canadian Coast Guard to transit and operate on more than 162,000 km of Arctic coastline. The capabilities of this Polar Class 2 icebreaker will help sustain a 12-month presence in Canada’s North in support of Canada’s Arctic sovereignty, high-Arctic science (including climate change research), Indigenous Peoples and other northern communities, and the ability to respond to major maritime emergencies including search and rescue. It will be able to accommodate up to 100 personnel, and, as one of the only Polar Class 2 vessels in the world, will be able to operate farther north, in more difficult ice conditions and for longer periods than any icebreaker in Canada to date.

This built-in-Canada ship will be the seventh vessel designed and built by Seaspan under the National Shipbuilding Strategy (NSS). It will also be the fifth Polar Class vessel to be built for the CCG, and one of up to 21 icebreaking vessels overall that Seaspan is constructing.

In January 2024, Seaspan completed construction of a polar Prototype Block to ensure preparedness to build this highly-advanced vessel, which requires steel that is twice as thick in some areas, while also being less malleable, as the steel Seaspan has used for the other ships built under the National Shipbuilding Strategy.

As the only shipyard currently building polar icebreakers in Canada, Seaspan looks forward to supporting the Canadian Coast Guard by building this large, multi-mission vessel, and through the design and construction of any vessels Canada and its ICE Pact partners need now, or in the future.

Klein Marine Systems selects Exail navigation technology to equip their 5900 sonar

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Klein Marine Systems has selected the Exail Octans Nano OEM Attitude and Heading Reference System (AHRS) as the standard navigation solution for their 5900 Side Scan Sonar (SSS). This collaboration aims to enhance the sonar’s precision and reliability for high-resolution seabed mapping, supporting a range of defense, security, and commercial applications.

The Exail Octans Nano OEM AHRS offers a heading accuracy of 0.5° secant latitude, and pitch and roll accuracy of 0.1°, ensuring stable and precise attitude and heading data. These capabilities are essential for optimizing sonar image quality, improving positioning accuracy, and reducing the need for extensive post-processing. The system’s compact design and low power consumption allow for seamless integration into subsea platforms, making it ideal for extended underwater missions where precise attitude data is critical.

“By integrating the Exail Octans Nano OEM into our 5900 SSS, we are significantly enhancing both positioning accuracy and image stability,” said Ted Curley, General Manager at Klein Marine Systems. “This advanced motion compensation technology reduces data errors, delivering clearer and more reliable imagery for critical missions.”

The Klein 5900 SSS is renowned for its high-resolution seabed mapping capabilities, supporting critical tasks such as geophysical surveys, wreck detection, and the identification of unexploded ordnance (UXO). With the integration of Exail’s AHRS technology, the sonar’s ability to maintain stability and reduce drift in challenging underwater conditions is strengthened, ensuring consistent and precise data collection in even the most complex environments.

“Klein Marine Systems’ selection of the Exail Octans Nano OEM reflects the trust placed in our cutting-edge AHRS technology,” said Shayan Haque, Regional Sales Manager at Exail. “We are proud to support Klein’s mission to deliver innovative solutions that empower users to perform more precise and efficient underwater surveys.”

Study: Burning heavy fuel oil with scrubbers is the best available option for bulk maritime shipping

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When the International Maritime Organization enacted a mandatory cap on the sulfur content of marine fuels in 2020, with an eye toward reducing harmful environmental and health impacts, it left shipping companies with three main options.

They could burn low-sulfur fossil fuels, like marine gas oil, or install cleaning systems to remove sulfur from the exhaust gas produced by burning heavy fuel oil. Biofuels with lower sulfur content offer another alternative, though their limited availability makes them a less feasible option.

While installing exhaust gas cleaning systems, known as scrubbers, is the most feasible and cost-effective option, there has been a great deal of uncertainty among firms, policymakers, and scientists as to how “green” these scrubbers are.

Through a novel lifecycle assessment, researchers from MIT, Georgia Tech, and elsewhere have now found that burning heavy fuel oil with scrubbers in the open ocean can match or surpass using low-sulfur fuels, when a wide variety of environmental factors is considered.

The scientists combined data on the production and operation of scrubbers and fuels with emissions measurements taken onboard an oceangoing cargo ship.

They found that, when the entire supply chain is considered, burning heavy fuel oil with scrubbers was the least harmful option in terms of nearly all 10 environmental impact factors they studied, such as greenhouse gas emissions, terrestrial acidification, and ozone formation.

“In our collaboration with Oldendorff Carriers to broadly explore reducing the environmental impact of shipping, this study of scrubbers turned out to be an unexpectedly deep and important transitional issue,” says Neil Gershenfeld, an MIT professor, director of the Center for Bits and Atoms (CBA), and senior author of the study.

“Claims about environmental hazards and policies to mitigate them should be backed by science. You need to see the data, be objective, and design studies that take into account the full picture to be able to compare different options from an apples-to-apples perspective,” adds lead author Patricia Stathatou, an assistant professor at Georgia Tech, who began this study as a postdoc in the CBA.

Stathatou is joined on the paper by Michael Triantafyllou, the Henry L. and Grace Doherty and others at the National Technical University of Athens in Greece and the maritime shipping firm Oldendorff Carriers. The research appears today in Environmental Science and Technology.

Slashing sulfur emissions

Heavy fuel oil, traditionally burned by bulk carriers that make up about 30 percent of the global maritime fleet, usually has a sulfur content around 2 to 3 percent. This is far higher than the International Maritime Organization’s 2020 cap of 0.5 percent in most areas of the ocean and 0.1 percent in areas near population centers or environmentally sensitive regions.

Sulfur oxide emissions contribute to air pollution and acid rain, and can damage the human respiratory system.

In 2018, fewer than 1,000 vessels employed scrubbers. After the cap went into place, higher prices of low-sulfur fossil fuels and limited availability of alternative fuels led many firms to install scrubbers so they could keep burning heavy fuel oil.

Today, more than 5,800 vessels utilize scrubbers, the majority of which are wet, open-loop scrubbers.

“Scrubbers are a very mature technology. They have traditionally been used for decades in land-based applications like power plants to remove pollutants,” Stathatou says.

A wet, open-loop marine scrubber is a huge, metal, vertical tank installed in a ship’s exhaust stack, above the engines. Inside, seawater drawn from the ocean is sprayed through a series of nozzles downward to wash the hot exhaust gases as they exit the engines.

The seawater interacts with sulfur dioxide in the exhaust, converting it to sulfates — water-soluble, environmentally benign compounds that naturally occur in seawater. The washwater is released back into the ocean, while the cleaned exhaust escapes to the atmosphere with little to no sulfur dioxide emissions.

But the acidic washwater can contain other combustion byproducts like heavy metals, so scientists wondered if scrubbers were comparable, from a holistic environmental point of view, to burning low-sulfur fuels.

Several studies explored toxicity of washwater and fuel system pollution, but none painted a full picture.

The researchers set out to fill that scientific gap.

A “well-to-wake” analysis

The team conducted a lifecycle assessment using a global environmental database on production and transport of fossil fuels, such as heavy fuel oil, marine gas oil, and very-low sulfur fuel oil. Considering the entire lifecycle of each fuel is key, since producing low-sulfur fuel requires extra processing steps in the refinery, causing additional emissions of greenhouse gases and particulate matter.

“If we just look at everything that happens before the fuel is bunkered onboard the vessel, heavy fuel oil is significantly more low-impact, environmentally, than low-sulfur fuels,” she says.

The researchers also collaborated with a scrubber manufacturer to obtain detailed information on all materials, production processes, and transportation steps involved in marine scrubber fabrication and installation.

“If you consider that the scrubber has a lifetime of about 20 years, the environmental impacts of producing the scrubber over its lifetime are negligible compared to producing heavy fuel oil,” she adds.

For the final piece, Stathatou spent a week onboard a bulk carrier vessel in China to measure emissions and gather seawater and washwater samples. The ship burned heavy fuel oil with a scrubber and low-sulfur fuels under similar ocean conditions and engine settings.

Collecting these onboard data was the most challenging part of the study.

“All the safety gear, combined with the heat and the noise from the engines on a moving ship, was very overwhelming,” she says.

Their results showed that scrubbers reduce sulfur dioxide emissions by 97 percent, putting heavy fuel oil on par with low-sulfur fuels according to that measure. The researchers saw similar trends for emissions of other pollutants like carbon monoxide and nitrous oxide.

In addition, they tested washwater samples for more than 60 chemical parameters, including nitrogen, phosphorus, polycyclic aromatic hydrocarbons, and 23 metals.

The concentrations of chemicals regulated by the IMO were far below the organization’s requirements. For unregulated chemicals, the researchers compared the concentrations to the strictest limits for industrial effluents from the U.S. Environmental Protection Agency and European Union.

Most chemical concentrations were at least an order of magnitude below these requirements.

In addition, since washwater is diluted thousands of times as it is dispersed by a moving vessel, the concentrations of such chemicals would be even lower in the open ocean.

These findings suggest that the use of scrubbers with heavy fuel oil can be considered as equal to or more environmentally friendly than low-sulfur fuels across many of the impact categories the researchers studied.

“This study demonstrates the scientific complexity of the waste stream of scrubbers. Having finally conducted a multiyear, comprehensive, and peer-reviewed study, commonly held fears and assumptions are now put to rest,” says Scott Bergeron, managing director at Oldendorff Carriers and co-author of the study.

“This first-of-its-kind study on a well-to-wake basis provides very valuable input to ongoing discussion at the IMO,” adds Thomas Klenum, executive vice president of innovation and regulatory affairs at the Liberian Registry, emphasizing the need “for regulatory decisions to be made based on scientific studies providing factual data and conclusions.”

Ultimately, this study shows the importance of incorporating lifecycle assessments into future environmental impact reduction policies, Stathatou says.

“There is all this discussion about switching to alternative fuels in the future, but how green are these fuels? We must do our due diligence to compare them equally with existing solutions to see the costs and benefits,” she adds.

This study was supported, in part, by Oldendorff Carriers.

Source: MIT

SBM Offshore signs US$400 million Sale and Leaseback agreement for FPSO Cidade de Para

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SBM Offshore announces it has signed a non-recourse sale and leaseback financing agreement for FPSO Cidade de Paraty for the total amount of US$400 million and with a tenor of 8 years. 

The transaction is expected to be completed before the end of April 2025 following the fulfillment of certain closing conditions.

FPSO Cidade de Paraty is owned by a special purpose company owned by affiliated companies of SBM Offshore (63.125%) and its partners (36.875%). Under the terms of the agreement, the special purpose company will transfer the ownership to four Chinese leasing companies.

SBM Offshore and its partners continue to operate and maintain the asset until the end of the initial charter and operate contracts for the remaining period of 8.5 years.

Douglas Wood, CFO of SBM Offshore, commented:

“We are very pleased to have signed the refinancing of FPSO Cidade de Paraty, the Company’s first sale and leaseback financing. With this strategic transaction we are demonstrating once again the value of our unique lifecycle offering not only from an execution and operation standpoint but also in our ability to continue to provide innovative long-term financing solutions for our clients. We appreciate the continued support from our Chinese leasing partners.”

Fugro and Spoor create new AI bird-monitoring solution for offshore wind farms

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Fugro and Spoor have signed a memorandum of understanding (MOU) to develop a new bird-monitoring solution for offshore renewable energy projects. 

This innovative system will not only help protect bird populations but also supports the growth of renewable energy by making environmental assessments more affordable, cleaner, and safer.

The solution uses video cameras installed on Fugro’s SEAWATCH® Wind Lidar and other metocean buoys to record bird activity at wind farm locations. Spoor’s advanced computer vision and AI software then analyses these recordings to quickly and accurately identify bird species.

Traditional bird monitoring methods require good weather and aircraft or vessel surveys, which are costly, have a high carbon footprint, and pose safety risks to field staff. Fugro and Spoor’s system overcomes these challenges by using buoy-mounted cameras that capture high-quality video year-round, even in harsh sea conditions. This approach provides a more reliable and cost-effective way to conduct legally required environmental impact assessments for offshore wind farms.

Jørn Erik Norangshol, Fugro’s Regional Service Line Director, Metocean Science for Europe and Africa, said: “We’re excited to be unlocking insights by connecting Spoor’s advanced computer vision software with our world-leading SEAWATCH® buoy technology to create a reliable bird-monitoring platform that can withstand tough offshore conditions. This innovative partnership will streamline bird-monitoring at wind farms and support the development of offshore projects.”

Christian Skaarup Rasmussen, Spoor’s Vice President of Partner Sales said: “This partnership with Fugro marks an exciting step forward in making offshore bird monitoring simpler, smarter, and more scalable. By embedding Spoor’s AI-powered bird tracking into Fugro’s offshore platforms, we’re giving developers access to high-quality, reliable data to meet biodiversity requirements.”

The launch of this new bird-monitoring solution was successfully tested at Hywind Tampen offshore wind farm in the Norwegian North Sea.

Fincantieri and Viking announce the world’s first hydrogen-powered cruise ship

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Fincantieri and Viking have announced the first cruise ship in the world to be powered by hydrogen stored onboard for both propulsion and onboard electricity generation, the “Viking Libra”. 

With a gross tonnage of approximately 54,300 tons and a length of 239 meters, the “Viking Libra”, will accommodate up to 998 guests in 499 staterooms. Designed with sustainability in mind, the ship will be capable of navigating and operating with zero emissions, allowing it to access even the most environmentally sensitive areas. This marks a new state-of-the-art hydrogen propulsion system that, combined with advanced fuel cell technology, will be capable of producing up to six megawatts of power, and will set a new benchmark for the industry’s decarbonization efforts. Viking’s subsequent ocean ship, the “Viking Astrea”, which is also currently under construction at the Ancona shipyard and scheduled for delivery in 2027, will also be hydrogen-powered.

The success of this joint initiative with Viking is made possible by Fincantieri’s capability to integrate disruptive new technologies on board. A key contributor to this effort is Isotta Fraschini Motori (IFM), Fincantieri’s subsidiary specializing in advanced fuel cell technology, which will provide tailor-made solutions for the “Viking Libra”. The vessel will feature first-of-a-kind solutions to load and store hydrogen directly onboard the ship thanks to a containerized system to overcome supply chain constraints. Hydrogen will power polymer electrolyte membrane (PEM) fuel cells system specifically optimized for cruise operations, designed and produced by IFM. This achievement reinforces IFM’s role as a leader in the adoption of green fuels and cutting-edge energy systems for the maritime and land application sectors.

Fincantieri and Viking also announced that they have signed an agreement for the construction of two new cruise ships for delivery in 2031, plus an option for two additional vessels, based on the successful features of the previous units, which Fincantieri has already built for this shipowner in its Italian yards. The value of this agreement, subject to financing and other typical terms and conditions, is considered as large.

The new ships will be built according to the latest environmental rules and navigation regulations and will be equipped with the most modern safety systems. The new vessels will be placed in the small cruise ship segment, the gross tonnage is about 54,300 tons and they will accommodate 998 passengers on board in 499 cabins.

“With the Viking Libra, we are not only delivering the world’s first cruise ship powered by hydrogen stored on board, but we are also reinforcing our commitment to shaping the future of sustainable maritime transportation”, said Pierroberto Folgiero, CEO and Managing Director of Fincantieri. “This milestone marks a defining moment in our journey towards net-zero, fully aligned with our Business Plan, and underscores Fincantieri’s role as a catalyst for the industry’s green transition. Beyond shipbuilding, we are driving a systemic evolution by integrating cutting-edge technologies, fostering supply chain innovation, and creating a model for the widespread adoption of hydrogen in the maritime sector. Furthermore, we are thrilled about Viking’s decision to expand its fleet with the order of two additional ships, which reaffirms the strength of our partnership, and the trust placed in our expertise. This new order is a testament to our shared vision for a more sustainable cruise industry, as together we continue to set new standards for innovation and responsible shipbuilding.”

“From the outset, we have designed our river and ocean ships thoughtfully to reduce their fuel consumption, and we are very proud that the Viking Libra and the Viking Astrea, will be even more environmentally friendly,” said Torstein Hagen, Chairman and CEO of Viking. “Viking made the principled decision to invest in hydrogen, which offers a true zero-emission solution. We look forward to welcoming the world’s first hydrogen-powered cruise ship to our fleet in 2026.”

Saildrone and Thales Australia demonstrate capability for autonomous anti-submarine warfare

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The successful integration of the BlueSentry sonar array with the Saildrone Surveyor marks an important step towards expanding the scope of naval interoperability and autonomous maritime capability developments between AUKUS partners.

Saildrone has successfully demonstrated the integration of the BlueSentry thin-line towed array with the Saildrone Surveyor, creating a groundbreaking system for autonomous long-endurance undersea maritime domain awareness (MDA). The project, funded by the Office of Naval Research (ONR), marks a significant leap forward in persistent, real-time, undersea surveillance.

Extensive sea trials conducted off the coast of California have demonstrated that this system can effectively detect and classify both underwater and surface threats and report this information to decision makers in real time. During the ONR trial, the Saildrone Surveyor and BlueSentry system operated continuously for 26 days and maintained uptime greater than 96%. 

“The acoustic performance of the BlueSentry array, paired with a platform as silent and capable as the Saildrone Surveyor, represents a considerable step forward in undersea observation,” said Richard Jenkins, founder and CEO of Saildrone. “The extreme endurance of the system allows us to put eyes and ears in places that were previously out of reach, at a cost point orders of magnitude below traditional manned surveillance platforms.”

The trials showed that, under wind propulsion, the Surveyor provided a near-zero self-noise environment, significantly improving the detection capabilities of the BlueSentry sonar system. Utilizing Starlink and Iridium satellite communications, the system is capable of persistent, secure data transmission, supporting real-time decision-making from remote locations worldwide.

“This partnership and ready-to-deploy capability set the standard for future intelligence, surveillance, and reconnaissance at sea, particularly in sensitive and remote regions that have significant operational challenges,” said Jeff Connolly, CEO, Thales Australia and New Zealand. “The integration of Thales Australia’s BlueSentry onto Saildrone’s Surveyor-class, as a core component of its maritime domain awareness solution, paves the way for greater naval interoperability between AUKUS partners and delivers on AUKUS Pillar 2 undersea warfare requirements.”

Saildrone and Thales Australia stand ready to deploy these systems at scale, creating a network of autonomous, self-sustaining surveillance assets to enhance national security. As threats evolve and the demand for persistent undersea awareness increases, the Saildrone-Thales system offers a scalable, low-cost alternative to traditional surveillance platforms. 

Offshore wind supply chain and port infrastructure set for £15m boost

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Funding for crucial development of manufacturing facilities and port infrastructure to enable swifter deployment of offshore wind around the UK is the focus of the second round of The Crown Estate’s innovative Supply Chain Accelerator.

Following the success of the initial funding round in 2024 The Crown Estate has allocated £15m for the next round of the programme which seeks to kick-start investments in UK offshore wind-related port infrastructure and supply chain facilities.

The Crown Estate established the £50m Supply Chain Accelerator last year to accelerate and de-risk the early-stage development of UK supply chain projects servicing the offshore wind sector.

It supports existing early-stage projects to scale up into attractive capital investment opportunities, helping to drive demand for new jobs and skills.

Following the passing of The Crown Estate Act 2025, this second round has been expanded to include UK ports and port-related infrastructure to support the construction, assembly, manufacturing, operations & maintenance, and wet storage of fixed and floating offshore wind, as well as supply chain opportunities that support deployment.

Ports are set to play a major role in the UK’s clean energy transition as hubs for the construction, operation and maintenance of offshore wind farms. The Government has set a target of up to 50GW of offshore wind deployed by 2030 and, with 14.7GW of offshore wind currently deployed off the UK’s coasts, greater funding for port infrastructure and facilities will be vital to deliver this ambition.

The Government’s target includes 5GW of floating wind, with The Crown Estate’s current Offshore Wind Leasing Round 5 expected to deliver up to 4.5GW in the Celtic Sea. The expanded scope of the Supply Chain Accelerator’s second round to include ports and port-related infrastructure as well as wet storage could support in the delivery of these targets.

In the second funding round businesses can apply for up to £1.5m per eligible project, with The Crown Estate providing 50% matched funding for early-stage development expenditure together with an option to participate in the capital investment phase.

The application process is now open and is due to close at the end of June. Successful projects will be chosen following an application assessment process and announced by the end of the year. The Crown Estate is being supported by professional services firm Grant Thornton.

The Supply Chain Accelerator aims to support UK projects that meet the opportunities identified by the Industrial Growth Plan (IGP), launched by RenewableUK and industry partners, including The Crown Estate, in 2024. It sets out the actions required to triple offshore wind manufacturing capacity over the next ten years. This funding round will align with the priority sub-sectors identified within the IGP as well as the identified need for ports and port-related infrastructure.

In December last year The Crown Estate awarded nearly £5m in funding to 13 businesses following the conclusion of the Supply Chain Accelerator’s initial funding round, which focused on developing a new UK supply chain capability for floating offshore wind in the Celtic Sea.

When coupled with match funding this will contribute to a combined development investment of over £9m which, if the opportunities successfully conclude their respective development stages, could lead to more than £400m of capital investment.

Established through an Act of Parliament, The Crown Estate recently announced a modernising of its legislation (The Crown Estate Act 2025) which grants borrowing and new investment powers to future proof the organisation. These new powers will enable The Crown Estate to have a greater flexibility for investment which will create long-term impact on decarbonisation and energy security, nature recovery, creating inclusive communities and economic growth.

Developing the offshore wind industry’s domestic supply chain through collaboration with industry and government partners forms a vital component of these ambitions.

Ben Brinded, Head of Investment at The Crown Estate, said: “The ambition behind our Supply Chain Accelerator is to accelerate and derisk the offshore wind supply chain in support of the UK’s clean energy transition, boosting economic growth through new jobs and skills opportunity around the country.

“Following the success of the initial funding round and the recent modernising of our investment powers through The Crown Estate Act 2025, we’ve expanded the ambition and scope for the second round of the Accelerator to include fixed and floating supply chain opportunities, together with ports and their associated facilities. The application window is open until the end of June, and we are looking forward to hearing from applicants with UK projects we could support to get investment ready.”

Gus Jaspert, Managing Director, Marine at The Crown Estate, said: “The energy transition isn’t just about clean power; it also offers huge opportunities for new jobs, skills and regeneration across the country.  With one of the world’s largest offshore wind industries and growing ambitions, we want to support the UK’s supply chains and infrastructure to be as successful as our deployed offshore wind. 

“Ports are vital national assets which are key to unlocking the huge potential of our exciting clean energy transition. Providing funding for port infrastructure and supply chain facilities is an obvious and important next move for our Supply Chain Accelerator. It will help the UK’s offshore wind sector to retain its global attractiveness to developers and investors, providing confidence we can increase our rate of deployment whilst also ensuring activity offshore is creating value for onshore communities up and down the country.”

Balmoral Comtec backs renewables with million-pound wave and current simulation facility

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The purpose-built facility simulates surface, subsea and seabed conditions, making it suitable for evaluating offshore wind, solar and other subsea systems under dynamic water conditions.

Supported by partial funding from the Energy Transition Zone (ETZ) Ltd of £74,000, this innovative facility highlights Balmoral Comtec’s ongoing commitment to advancing renewable energy solutions and supporting the energy transition.

The facility will be instrumental in enhancing the performance and design validation of HexDefence – a scour protection product launched in 2023. The state-of-the-art facility allows Balmoral to replicate offshore wave and current scenarios, providing operators and developers with an additional layer of assurance as they transition from traditional methods such as rock dumping. This investment builds on the approximately £2 million already dedicated to the development of HexDefence, including prototypes, design and testing.

The facility’s capabilities also go beyond renewable energy, supporting applications in the oil and gas sector and other marine industries requiring reliable simulation environments. Furthermore, Balmoral Comtec will be able to invite third parties to use the new test facility, opening further revenue streams for the business.

Fraser Milne, Projects and Engineering Director at Balmoral Comtec, commented: “The launch of the Wave and Current Simulation Facility marks a pivotal step in our ongoing commitment to delivering sustainable energy solutions and advancing renewable technology. This cutting-edge resource allows us to provide unmatched testing capabilities that will benefit not only our HexDefence projects but also the wider offshore energy sector.

“Beyond the benefits to Balmoral, we believe that the facility will play a key role in strengthening Aberdeen’s position as a leader in renewable energy. As the city transitions to a sustainable energy future, we are poised to contribute significantly to the development of innovative solutions for the North Sea and beyond.”

Freda Miller, Supply Chain Programme Manager at ETZ Ltd, said: “This region is creating an ecosystem of innovation and entrepreneurial support for firms building the energy system of tomorrow. As part of that effort, this simulation facility will play a valued role in helping to test and de-risk technologies before coming to market for wide scale deployment in areas including offshore wind.

“This is an important investment towards ETZ Ltd’s goal to position North-East Scotland as the net zero capital of Europe, and another testament to this area’s world-class subsea innovators driving the transition.”