The Coast Guard’s Cruise Ship National Center of Expertise (CSNCOE) has published its spring newsletter highlighting its latest list of the top five deficiencies found on cruise vessels.

The deficiencies listed are:

•    Fire screen doors not operating properly
•    Impeding means of escape – Corridors, doors and hatches in areas designated as escape routes were found to be either partially or completely blocked. Doors in some instances were locked, without the ability to defeat the lock, preventing passage in the direction of escape.
•    Water tight doors were found with missing portions of gaskets, hydraulic oil leaking, inoperable audible alarm, or the means of indication that show at all remote operating positions were found to be in a fault condition.
•    Fire suppression systems were found to be deficient. Sprinkler heads/water mist nozzles were found painted over, damaged, or completely missing. Other issues included failed couplings.
•    Improper utilization of categorized spaces – There were several deficiencies issued regarding improper use of spaces. Space is at a premium on cruise ships. Because of this, sometimes crews store combustible materials in spaces that do not have the adequate fire protection and suppression systems in the event of a fire.

CSNCOE notes that the industry as a whole has improved to the point where it was no longer necessary to include a top 10 list as the remaining issues were identified so infrequently that they didn’t warrant inclusion.

In calendar year 2015 the Coast Guard reported 205 vessel detentions to the IMO. In that time, the Coast Guard conducted 259 cruise ship examinations and only 1.6 percent received a detention. “This low percentage shows that there is a strong safety culture in the cruise line industry, stated CSNCOE. This list highlights cases where deficiencies led to the detentions:

•    Inoperability of the oil filtering equipment, the three-way valve did not operate when the oil content reached and/or exceeded 15PPM.
•    A ship’s officer did not have a valid certificate endorsement from the flag state administration.
•    Ship was not manned in compliance with the applicable safe manning requirements of the Administration. A ship’s officer was not certified to serve onboard the type of ship.
•    The engineering space deck plates were slippery, surfaces were coated with an oily layer, and all bilges had a one inch thick layer of oil.
•    Fire hoses were found rotted and inoperable.
•    The vessel was not following their fire control plan by stowing random items in spaces throughout the ship, and installing cooking equipment in berthing and accommodation spaces.
•    Multiple exhaust dampers were wasted and did not close properly.
•     The deep fryer did not have a fixed fire extinguishing system.
•    Rescue boat hull had severe pitting, corrosion and wastage, allowing water intrusion.

 

Source: maritime-executive


KG: Hi everyone, it’s Kevin. Today is Wednesday, March 10th (day recorded). On today’s podcast I’m going to talk about a topic critical to our mission—ship certification—with someone who has had a storied career and in my view is a legend in service to our nation, especially in the business of submarines. Retired Vice Admiral Paul Sullivan graduated from the U.S. Naval Academy in 1974 and later MIT with degrees in Ocean Engineering, Naval Architecture and Marine Engineering. Admiral Sully earned his dolphins on board the nuclear-powered ballistic-missile submarine USS James Madison. Over his naval career, Paul served in a variety of roles, a lot of them right here at Electric Boat, including Ohio-class submarine project officer, Los Angeles-class project officer at SUPSHIP, staff to the Assistant Secretary of the Navy, and as Program Manager for both the Seawolf and Virginia programs. In 2005 Paul was promoted to Vice Admiral. He led NAVSEA, the Navy’s largest Echelon II Command, until his transition from the Navy in 2008. Sully has since held a variety of civilian roles, including Director of the Applied Research Laboratory at Penn State. He currently serves as a Highly Qualified Expert for the Assistant Secretary of the Navy, providing expert guidance and mentorship to PEO Submarines, PEO Columbia and PEO Maintenance and Modernization.

Admiral, welcome back to Electric Boat and thanks for your support in helping us prepare for a very busy year of ship certification.  As you know, this year we will certify two new-construction Virginia ships and two Virginias completing their post-shakedown availabilities—that’s the 790 and the 791. The timing of these certifications will likely result in all of us being in the process of certification for at least three ships at the same time. We’ve got a great amount of work ahead of us, and that’s exciting, but it’s also a tremendous challenge for the community to manage, acknowledging that above all, we need to deliver a safe, high-quality and high-performing product to the operators and the Navy. So welcome again Admiral to the podcast.

Adm. Paul Sullivan (PS): Thanks, it’s an honor to be here. As you know, we just spent about an hour and a half with our senior managers downstairs talking about this subject. I was very encouraged by the great attitude and participation of everybody; it’s a team sport.

I share that with you. This is a milestone for us. We’ve been doing this podcast for just about a year now, really since COVID began. What’s transitioned from a COVID update has now become something we’re using to communicate to the rest of the community about what it is the business is facing. You are the first outside-EB guest on the podcast, and I can’t think of a better topic than ship certification and how important that is to our business than to have you as a guest for that very discussion.

You’ve got an enterprise view—not just here at EB, but Newport News and the entire Navy. What do you see as the major challenges we’re faced with as an enterprise as we approach the ship certification schedules in the months ahead and then overall as an enterprise?

PS: The challenge facing us all—this is not only people at EB and Newport News, but in the Navy headquarters, because certification is a team sport, as you know—it will be hard to make sure we’re focusing on the most important stuff; our day-to-day challenge of balancing cost, schedule and quality pushes us to the limit all the time. When we stack up ship deliveries like this, we’ve got to make sure we get it right every time, first time, as we go through all these certifications. As I mentioned in our earlier discussions today, I think the biggest challenge is actually physical stamina. Because these certifications come down very hard, and when they are back-to-back, as these certifications coming up this year are going to be, we’re going to have to make sure our people are mentally and physically prepared to go through all of that, otherwise all of the culture doesn’t matter because we’re too tired.

Absolutely, it’s a marathon, not a sprint to be sure. We also talked a little bit about some of the tragedies the submarine community has confronted over the decades, notably the Thresher and the Scorpion. There are others that are near-tragedies, such as collisions. All of these underscore the significance of what it is we do from a certification process, but we don’t want to just learn from tragedies. We want to make sure we’re learning lessons on things like a near-miss. Sometimes that’s hard to do without getting complacent over time. How do we maintain that culture absent a significant tragedy?

PS: The biggest thing we need to think about when we’re avoiding the culture of complacency that generates these tragedies is to constantly remind ourselves that every time a U.S. Navy submarine submerges, we’re putting our friends, our shipmates, and in the case of ship delivery trials, our own shipyard personnel at risk because the sea pressure is absolutely unforgiving. We do have problems, and you should know that many of the tragedies that we’ve had in our past are either out of new construction or after post-repair trials or post-shakedown availability trials—they are all important, every single one of them. With the near-misses, it is sometimes hard to recognize that it was a near-miss, but every time we do recognize we’ve had a near miss, we should run a critique to go figure out what happened, and more importantly, out of that critique should come the lessons learned that are nuggets for us to avoid that culture of complacency. If we treat the near-miss like the casualty actually happened, we do a better job of learning the lessons out of that and applying it to the future.

Let’s talk a little bit about the Thresher disaster. From our perspective, that should stay as fresh in our mind as if it happened yesterday. How do we apply that to our current workforce across the enterprise?

PS: Thresher was a first-of-class ship. I know we call it the Permit class, but it was the Thresher class and that class of ship changed everything. It was the hot-rod of the fleet at the time, and the performance from a deep diving, heavily armed, acoustically superior submarine, all of those new-hull steel, they were all game-changing technologies that we put into one submarine. I think it got away from us in that we didn’t system engineer it well enough, and we didn’t make sure that the standards that we had in our shipyards—this one was built at Portsmouth—were up to the standards of having that new technology and all of those aggressive design features. The takeaways from the Thresher were many, and they are all really still relevant today: inadequate design review of critical components and systems where we didn’t really understand what was going to happen when those were subject to the rigors of submarine operations. There was poor workmanship involved. There were signatures put in place for work that was incomplete. We had unknown weld deficiencies. We had inadequate inspection procedures, and we didn’t know in some cases how badly some of the, for instance, piping joints were on Thresher because we just didn’t have good enough non-destructive testing at the time to go evaluate all of those joints, and they were in sea-connected seawater systems, which probably was the initiation.

A lot of work practices were not up to speed with the new technology. So we learned a whole bunch of lessons including design lessons for emergency main ballast tank blow systems where we completely redesigned those. Also, sea-connected systems, we minimized those going through the submarine. Spray-tight switchboards where we thought that it was quite possible on Thresher that electric power went out because the spray from the seawater leaks impacted all the electrical equipment on board the submarine. Although those deficiencies have been corrected, every time we design a new class of submarine, we need to go look for all these new things we’re putting on the boat that could cause a problem down the road if they’re not adequately reviewed by themselves and as a system interacting with each other.

And here we are, right on the verge of introducing some new technology and putting it to sea for the first time, for example on the 790, and we’ve just completed the design on the Columbia.

PS: I would say the 790 PSA is almost a lead submarine because of all the changes we’ve made to that boat. 803 and 804 is a lead submarine in each shipyard with the VPM’s in there, the SSW boat is right around the bend, we’re working on the design for that, and the Columbia is a lead submarine, so we have a lot of first-in-class issues coming our way almost all at the same time.

You have talked about the little “c”s in certification and how they are the basis of the big “C,” ship certification.  What does that mean, and why is it so important?

PS: Certification is our bond to the crew of that submarine that we did our work and our testing correctly. We’re giving our word. When each shipbuilder, then the supervisor, then NAVSEA sign off on those certifications, the signatures at the top level, I would call those the big “C,” they’re all based on submissions from the next level down, and the next level down is based on certifications all the way down to the design engineer working on the drawing-board and the tradespeople who are assembling and putting together our submarines. When we sign off on that, it’s objective quality evidence—we always talk about OQE—that’s the sign that we’ve done everything correctly in the SUBSAFE boundary, the FLY BY WIRE boundary, and for the boats that have SCOPE of CERT (DSS-SOC)—all three of those have been taken care of. I’ll call it a pyramid of signatures built all the way on the integrity of the first-level worker, whether that’s an engineer, a quality assurance person, or a tradesperson. We build those to the next level and that overall certification is dependent on that we all knew what we were signing for and we looked at it personally and have detailed personal knowledge of that signature.

Signatures, the little “c”s that happen almost every day, are really THE building block for how we get to the big C certification process. We talked about how there are some tear-down forces in today’s environment where maybe our signature doesn’t mean so much. It’s different though, with submarines, isn’t it?

PS: It sure is, and I’m very worried about this. In our world today, we’re information driven. We look at many more written words. They may be on the internet, or on our computer, but we’re actually reading more and more than our parents or grandparents. Because of information security requirements, we’re required to do single verification, double verification, triple authentication for our banking accounts, etc., and we do this at the drop of a hat in our daily business. There are some examples that drive us in the wrong direction. In 1950, to buy a house it probably was a five-page document. Today it’s a stack of documents an inch high. We sign every one of them trusting that our real estate agent and attorney knows what’s in there and that they’ve been correctly assembled. We probably look at the summary sheet and make sure the numbers line up and that’s about it, yet we sign how many pieces of paper? Same thing with buying a car—we read the sales agreement but we don’t read the fine print. Finally, downloading an app on your cell phone—when you hit “yes, I accept terms and conditions,” you’re actually making a legal commitment to that software developer that you’re not going to re-use or violate copyright, but we tend to ignore the detail and just say “yes” because after all, there are no consequences to us of that as long as we know that the software developer is not going to come after us, or our house closing is going to go through, or we are going to drive off the dealer’s lot with the car. That is absolutely not what we have to do in submarine certification. Our signature means we’ve done the work, we’ve witnessed the test, it met 100% of the requirements or it didn’t, and we adjudicated what went wrong. We either re-test, fix it or agree that the risk of living with the deficiency is correct, proper and won’t jeopardize the safety of the boat. Very, very different, and we have to almost re-train ourselves. For senior people, we have to re-train ourselves constantly because we’re all doing the same thing Generation Y and Z are doing that they grew up with. It’s not just “those young people”; it’s all of us.

An interesting question is what is your signature worth? In our business it’s worth the souls of every sailor, every EB employee, every person who ultimately ends up sailing on that ship over its life. I think you’d probably agree with me.

PS: I absolutely do. That’s why on that first dive so many people ride the boat: the 4-Star Director of Naval Reactors, the Supervisor of Shipbuilding, the Navy Program Manager, the shipbuilder President, the Ship’s Manager.  All of those people because unless we’re facing our own mortality—it is that serious—we are not motivated to pay the absolute amount of diligence that we must pay to all those signatures.

We began SUBSAFE certifications after the loss of the Thresher many years ago. Since then, no SUBSAFE-certified ship has ever been lost.  That’s a tremendous record, but should we be comfortable that it can’t happen?

PS: We absolutely should not be comfortable. History shows that all complex systems have failures and the two times I’ve been up here at EB I’ve been talking about complex failures and complicated systems. First off, they always fail in complicated ways, which means a whole bunch of things have to line up for you to have a bad day. Generally, it’s a cycle. You have a tragedy, you have a recovery process, you get to a culture of excellence, and then after three generations of the culture of excellence, you start to slip. And then you slip into a culture of complacency. We can’t do that; we’ve got to break that cycle and prevent that next tragedy. You can see it in the airplane industry, the space industry, the automotive industry and other complicated systems—oil rig blowouts, Deepwater Horizon, nuclear power plant accidents. The cycle of learning is tragedy, and we have to break that cycle and always stay in a culture of excellence and not go down the path to a culture of complacency. It’s very, very hard to do, but back to the start of our discussion, if we consider every near-miss as if it were the actual tragedy, we can stay on the good side of that cycle.

Terrific points, I want to say as we wrap up, thank you very much for chatting with us today on the podcast and sharing that with the rest of the EB team. This is a great way to get to 17,000 folks who come to work every day here at EB and get them to understand the significance of the certification process. I want to tell you how much I appreciate your participation, now twice, in preparing the senior team for a busy year of ship certifications ahead.

PS: Thanks, and again it’s an honor to be here, and it’s a pleasure to talk to your leadership team. Everybody is focused in the right direction.

 

Source: eblanding


On 9 March 2021, Singapore ratified the Convention on the International Organization for Marine Aids to Navigation. It is the first country to do so shortly after it signed the Convention on 1 March 2021. Ratifying the Convention will support the International Association of Marine Aids to Navigation and Lighthouse Authorities (IALA) to become an intergovernmental organisation.

Established in 1957, IALA is the leading international association for technical standards in marine aids to navigation (ATON), vessel traffic services (VTS) and e-navigation. Consisting of technical committees that develop common standards and practices across the maritime industry, IALA drives the harmonisation of ATON worldwide to foster safe, economic and efficient shipping. As an intergovernmental organisation, IALA will be better placed to fulfil the crucial role it plays in facilitating marine navigation.

As a major hub port and a coastal state situated along one of the world’s busiest waterways for international shipping, Singapore recognises the importance of IALA’s efforts to establish common technical standards for VTS and e-Navigation in promoting safe and efficient shipping. Besides hosting various IALA workshops and courses over the years, Singapore also signed a memorandum of understanding with IALA in 2018, which committed S$1 million over five years to support the IALA World-Wide Academy in capacity building and human resource development for IALA’s National Members. Singapore is presently serving a four-year term as an elected Council Member of IALA.

Mr Francis Zachariae, Secretary-General of IALA, said, “Over the years, the MPA has been instrumental in their active support to IALA and the generous sponsorship to the World-Wide Academy. Their strong experience and continued innovation, especially in the domains of vessel traffic services and e-navigation has greatly assisted the work of IALA. The MPA has also been instrumental in the change of status process and is now the first State to have ratified the Convention, for which I am very grateful.”

Mr Chee Hong Tat, Senior Minister of State for Transport and Foreign Affairs, said, “Singapore supports the elevation of IALA’s status from a non-governmental organisation to an intergovernmental organisation. This will boost international participation in IALA’s activities and strengthen global cooperation and coordination in harmonising marine ATON and related services. As an IALA Council Member, Singapore strongly supports IALA in growing its mandate to improve navigational safety and the efficiency of maritime traffic for the global shipping community.”

 

Source: hellenicshippingnews


“One year ago, as the world plunged into the COVID-19 crisis, I spoke of our voyage together and the need for collaboration and cooperation. I am glad to say that over these past 12 months, we have worked intensely with many different stakeholders to address challenging conditions.

The maritime sector has continued to deliver the vital supplies that people need. Seafarers have worked tirelessly, at the heart of this trade, to keep goods flowing. Despite difficulties with port access, repatriation, crew changes and more, there can be no denying that seafarers have gone beyond the call of duty.

Hundreds of thousands of seafarers have been forced to work long beyond their contracted time. We have estimated that throughout the last months of 2020 and up to the beginning of this year, 400,000 seafarers still needed to be repatriated, with a similar number needing to join ships.

Thanks to concerted efforts by Governments, shipowners and others, this figure is now estimated at 200,000 seafarers needing repatriation and a similar number needing to join ships. One of the major achievements of last year contributing to this was the adoption of the United Nations Assembly resolution calling on UN Member States to designate seafarers and other marine personnel as key workers and to implement relevant measures to allow stranded seafarers to be repatriated and others to join ships, and to ensure access to medical care.

But we cannot be complacent. Fewer than 60 countries so far have heeded our call for seafarers to be designated as key workers. More countries need to do so if we are to resolve this crisis and ensure seafarers are treated fairly and so that their travel to and from their place of work is properly facilitated. There is still a long way to go before we are back to a normal crew change regime.

As vaccination is rolled out in many countries, I urge Governments to prioritize seafarers in their national COVID-19 vaccination programs.

Governments should also identify and prepare for the challenges of the vaccination of seafarers who spend long periods of time away from their home countries. We need to continue to work together to develop relevant protocols and guidance around vaccine certification. This is particularly important as any barriers to travel created by national vaccine protocols may further complicate an already difficult crew-change situation.

On our voyage through this pandemic, which has been challenging for the whole world, I recognize that many seafarers have endured intense hardship as they have worked to keep trade flowing. I wholeheartedly thank seafarers for this.

We will continue to work with our sister UN agencies, with industry bodies and with Governments to address the ongoing needs of seafarers. We will also be looking towards taking the lessons learned going forward, so we can be better prepared in the future.”

 

Source: maritimeprofessional


The bill, HR 3375, was introduced by Representative David Brock Smith and seeks to establish a 3-GW goal in federal waters off the Oregon coast. It also seeks to establish a task force on floating offshore wind.

HR 3375 also requires that the task force put together a floating offshore wind strategic plan and submit that plan to interim committees of the legislative assembly related to energy no later than 15 September 2022.

A 2019 study published by the National Renewable Energy Laboratory found that floating wind off Oregon was a ‘promising’ potential source of clean energy for the state.

The study, Oregon Offshore Wind Site Feasibility and Cost Study, said floating wind would be required off Oregon because 97% of the 62 GW of available technical offshore wind energy resource in Oregon is in water depths greater than 60 m.

The study noted that although floating offshore wind energy is still in a ‘nascent’ stage of development, it is advancing toward commercialisation in both Europe and Asia.

“Overall, the prospects for offshore wind in Oregon look promising for large-scale electricity generation,” the authors of the report said. “Floating technology is maturing rapidly, and offshore wind can provide a carbon-free alternative electricity source in coastal regions.”

The authors of the report said there will also be significant challenges for offshore wind to overcome in Oregon, including optimization of floating technology, coexistence with the fishing industry, mitigating impacts to wildlife and the viewshed, and integrating with the existing land-based grid.

 

Source: rivieramm


Liquefied CO2 ocean transport plays a key role in carbon dioxide capture utilization and storage (CCUS) value chains as a means of effectively connecting collection sites with storage or usage sites. CCUS is drawing attention as a technology to collect and store CO2 or use it effectively, and a step toward realizing a low-carbon society. According to a report by the International Energy Authority (IEA), CCUS targets a 15% reduction in cumulative CO2 emissions by 2070. This is expected to contribute to a reduction of about 6.9 billion tons per year when carbon neutrality is achieved.

Larvik Shipping is one of very few companies in the world qualified to operate liquified CO2 vessels for food grade CO2 used mainly by hospitals, breweries and the food industry. The company has operated industrial liquefied CO2 vessels in Europe for over 30 years and has a strong track record in safe transport of liquefied CO2 and extensive cargo-handling know-how. Operation of liquified CO2 vessels for food grade CO2 will be a continued focus for Larvik Shipping going forward.

MOL will soon enter the liquefied CO2 ocean transport business, which is positioned for significant growth in step with the increasing adoption of CCUS. MOL will contribute to further expansion of the business by combining its accumulated expertise and technological capabilities in safe operation with Larvik Shipping’s knowledge and solid experience. Both companies will discuss the adoption of larger ships with an eye toward expanding both upstream and downstream and in the CCUS value chain.

 

Source: marinelink


The maritime shipping industry has set ambitious decarbonization targets over the next decade. Shrinking the shipping industry’s carbon footprint is going to take a range of innovative solutions and technologies — from simple solutions like more efficient route planning to more advanced options, such as hull design.

Biofouling presents a major threat to the industry’s progress toward decarbonization targets. Biofouling is the accumulation of microorganisms, plants, algae, or small animals on wet surfaces that have a mechanical function, causing structural or other functional deficiencies. Maritime shipping and logistics companies face challenges in vessel marine performance related to macrofouling — the attachment of larger organisms such as barnacles, soft corals, and seaweed.

[Read more: What is Biofouling and How Can We Stop It?]  

Here’s how biofouling is affecting the shipping industry and what marine logistics companies can do to prevent and combat biofouling.

How biofouling impacts vessel efficiency

Biofouling happens in two stages: microfouling and macrofouling. In macrofouling, heavier organisms such as barnacles and small coral colonies adhere to the submerged hull of a ship. These organisms can weigh up to 10 tons, significantly increasing the vessel’s drag.

“The costs of these hull-fouling stowaways are substantial: According to one study, the U.S. shipping industry spends more than $36 billion each year in added fuel costs to overcome the drag induced by clinging marine life or for anti-fouling paint that prevents that life from hitching a ride in the first place,” reported Science Magazine. “And that figure doesn’t include the cost to regularly scrape a hull smooth, which costs approximately $4.50 for every square foot of hull surface.”

Even minor microfouling can decrease vessel efficiency by 10 – 16%; macrofouling and result in loss of 86% of a vessel’s cruising speed, contributing to delays across the marine shipping industry.

These losses are only expected to increase due to climate change. A recent study found that warmer water creates the conditions for even more intense macrofouling. The median-projected scenario of a 3.5°C increase in water temperature causes marine organisms to grow twice as fast as they do at today’s surface temperatures. Not only did organisms grow more quickly — but they also formed a thicker layer.

Biofouling is expensive no matter how you measure it: in terms of time, energy (e.g., fuel), and actual dollars. Plus, cleaning and other antifouling measures are regular expenses that add up over time.

What is antifouling?

The IMO defines antifouling as “a coating, paint, surface treatment, surface or device that is used on a ship to control or prevent attachment of unwanted organisms”. Basically, antifouling is a measure that reduces the impact of biofouling on vessel efficiency.

Historically, ships used compounds like arsenic and lime to protect the hull of a ship against biofouling. Over time, however, those compounds leach into the water and can destroy marine ecosystems. The IMO now regulates the types of antifouling paint, compounds and methods that the shipping industry can use to prevent biofouling safely.

It’s also worth noting that antifouling differs from “fouling-release” tactics: “Fouling-release describes the force required to remove an organism that is already attached to a surface. These two terms have been used interchangeably in the literature; however they are truly different phenomena,” explained Science Direct.

As the demand for antifouling and fouling-release strategies grows, here are some of the most effective measures currently in use today.

6 Ways to combat biofouling to improve vessel efficiency

There are a number of preventative measures and fouling-release tactics that can help combat biofouling.

Preventative measures include:

  1. Using an electrolytic system: This system passes a current between two anodes usually made of copper and aluminum. The current produces copper ions that prevent marine organisms from settling on the hull, as well as prevents the surface from corroding, as rough surfaces are more susceptible to biofouling.
  2. Chemical dosing: This measure is used specifically for a ship’s piping method. It involves using an antifouling chemical such as ferrous chloride to coat the pipework with a protective layer that prevents corrosion.
  3. Using an ultrasonic system: One of the most effective antifouling measures, this method uses high-frequency electrical impulses to prevent marine growth from attaching to piping systems.
  4. Electro-chlorination: A mechanism on the ship uses chlorine to produce sodium hypochlorite, which is then used to prevent fouling. This method is slightly more risky than others and must be tested as chlorine can damage marine ecosystems.

These tactics often require machinery on board: for smaller vessels, these preventative measures may not be cost-effective or efficient. As a result, some ships use antifouling paint to try to prevent biofouling. These coatings work in a few different ways. Some repel organisms from the hull; others make the surface slippery so that organisms have trouble sticking. Hydrophobic foul-release coatings make it easier to clean organisms from the hull of a ship.

There are a number of boat hull cleaning practices to remove marine organisms off the hull of the boat while the boat is still in the water. “Conventional hull cleaning is conducted by divers using rotating-brush carts, or using ROVs equipped with rotating brushes or waterjets,” explained one expert. “Alternatively, preventive maintenance approaches have also been suggested, such as hull grooming on US Navy vessels, consisting of frequent and gentle wiping of the hull and continuous prevention methods, such as aeration or ultrasound transducers.”

Ancillary technology like Sofar Ocean’s Wayfinder platform provides data that can help schedule antifouling maintenance to improve vessel efficiency before macrofouling becomes a big problem.  By combining the most accurate weather data from the Sofar network with custom vessel performance curves, Wayfinder is able to predict when a vessel might be underperforming due to fouling of the prop or hull. Marine logistics companies can use this information to schedule the appropriate cleaning — optimizing operational efficiency, improving vessel maintenance, and limiting unnecessary delays caused by biofouling.

Combatting the impact of biofouling on vessel efficiency takes a multi-pronged approach that starts with data. Vessel-specific performance models can provide the feedback shipping companies need to understand the causes and effects of decreasing vessel performance. From there, the appropriate combination of antifouling and fouling-release tactics can be used to remove marine organisms safely.

 

Source: sofarocean


During February, there were zero new detentions of foreign flagged vessels in a UK port.

  1. In response to one of the recommendations of Lord Donaldson’s inquiry into the prevention of pollution from merchant shipping, and in compliance with the EU Directive on Port State Control (2009/16/EC as amended), the Maritime and Coastguard Agency (MCA) publishes details of the foreign flagged vessels detained in UK ports each month.
  2. The UK is part of a regional agreement on port state control known as the Paris Memorandum of Understanding on Port State Control (Paris MOU) and information on all ships that are inspected is held centrally in an electronic database known as THETIS. This allows the ships with a high risk rating and poor detention records to be targeted for future inspection.
  3. Inspections of foreign flagged ships in UK ports are undertaken by surveyors from the Maritime and Coastguard Agency. When a ship is found to be not in compliance with applicable convention requirements, a deficiency may be raised. If any of their deficiencies are so serious, they have to be rectified before departure, then the ship will be detained.
  4. All deficiencies should be rectified before departure.
  5. When applicable, the list includes those passenger craft prevented from operating under the provisions of the EU Directive on a system of inspections for the safe operation of Ro-Ro passenger ships and high-speed passenger craft in regular service and amending directive 2009/16/EC and repealing Council Directive 1999/35/EC (Directive EU 2017/2110).

Notes on the list of detentions:

  • Full details of the ship:
    The accompanying detention list shows ship’s International Maritime Organisation (IMO) number which is unchanging throughout the ship’s life and uniquely identifies it. It also shows the ship’s name and flag state at the time of its inspection.
  • Company:
    The company shown in the vessel’s Safety Management Certificate (SMC) or if there is no SMC, then the party otherwise believed to be responsible for the safety of the ship at the time of inspection.
  • Classification society:
    The list shows the classification society responsible for classing the ship only.
  • Recognised organisation:
    Responsible for conducting the statutory surveys: and issuing statutory certificates on behalf of the flag state.
  • White (WL), grey (GL) and black lists (BL) are issued by the Paris MoU on 01 July each year and shows the performance of flag state.
  • Deficiencies:
    The deficiencies listed are the ones which were detainable.

 

Source: miragenews


Kongsberg Digital (KDI) has announced that a growing number of maritime bodies in Canada, ranging from Canadian Marine Training Institutes to the Canadian Coast Guard, are using its cloud-based simulation solutions as a vital part of their education and training programmes.

Transport Canada, which is responsible for the country’s transportation policies and programmes, has now reviewed and approved several courses in Canadian schools and training centres which use KDI’s cloud-based simulators to conduct blended learning.

The widespread adoption of KDI’s simulation solutions throughout Canada is the latest achievement in a massively successful rollout of simulator training which has seen approximately 30,000 simulations being deployed since the first quarter of 2020, when the company made several of its high-fidelity simulators available as eLearning modules via its digital platform, K-Sim Connect.

Accessible via any web browser and simple to use, the cloud simulation allows instructors to upload, manage and distribute exercises as well as download assessment files enabling them to issue personal feedback to individual students, who can train repeatably anytime and anywhere.

While the British Columbia Institute of Technology has pioneered the use of KDI’s eLearning solution for Thermal Power Plant training, several Canadian Marine Training Institutes have been using the cutting-edge K-Sim Engine eLearning solution for engine room courses.

Thomas Aulinger, director of the Centre for Marine Training and Research (CMTR) at Georgian College, is enthusiastic about the effectiveness of KDI’s engine room simulators and the K-Sim Connect portal in live virtual classroom sessions. CMTR conducted the very first blended Power Propulsion Simulation courses using in-cloud simulation.

“Giving our students the opportunity to participate in a virtual classroom, while exercising on their individual K-Sim Engine simulators, actually created an improved learning environment beyond the traditional physical classroom session,” he said. “While interrelating in the virtual classroom, student communication and information sharing actually exceeded previous in-classroom interactions. The K-Sim Connect solution has proved itself to be an outstanding digital learning platform.”

Darrell Gouthro, CCGC onsite capital project manager at the Canadian Coast Guard College, endorses the use of eLearning solutions for radar training. “Hours of radar time can be built up much more quickly this way than by using full-size simulators or by undertaking live practice on board ship,” he commented. “The extra training time the K-Sim eLearning solution allows students on the use of controls, while also enabling them to hone their ability to interpret radar images, identify targets and so on, will improve their confidence and skills at a rate which would not have been possible before now.”

“It is very satisfying to see our K-Sim Connect eLearning solutions continuing to receive recognition from an ever-increasing number of maritime institutes,” added Andreas Jagtøyen, EVP, digital ocean, Kongsberg Digital. “We’re continuing to build more content on the platform, with the recently-launched radar training solution and a forthcoming eLearning module for ECDIS training scheduled for launch in the second quarter of this year. We feel very confident that we are playing a vital part in helping the industry to smoothly achieve its digital transition.”

 

Source: thedigitalship


SINGAPORE/MANILA: The Philippines Coast Guard has banned a North Korean freighter from leaving port until safety deficiencies, found during a security and safety inspection of the vessel, are rectified, officials said on Friday.

The inspection was ordered by the Coast Guard headquarters in Manila after the vessel was included on a list of 31 ships covered by harsher sanctions on North Korea that were approved by the United Nations over Pyongyang’s nuclear programme.
The 6,830 deadweight ton general cargo ship Jin Teng was one of the first sanctioned North Korean ships to enter a foreign port since the tightened sanctions were passed unanimously by the UN Security Council on Wednesday.
Three Coast Guard officials, accompanied by a dogs trained to detect explosives, searched the ship and checked crew documents on Thursday after the ship docked at Subic Bay, a former US naval base and now commercial port, a coast guard commander told Reuters.
Nothing suspicious was found on the ship or its 21 North Korean crew, although several minor safety problems including issues with firefighting and electrical equipment meant the ship could not leave port until they were fixed, the commander said.
“Our headquarters directed that as this vessel was on the (UN) list then it should be inspected thoroughly,” said the commander, who declined to give his name because he was not authorized to the media.
The ship, which is registered in Sierra Leone, was continuing to unload its cargo of palm kernel, he added. If a ship is designated by the UN, its owners would find it difficult to get the vessel insured, refuelled or even call at foreign ports, industry experts said.
“I doubt that anyone will touch the ships as far as international insurers go and they may be prevented from trading to most places as a result,” said one shipping lawyer.
But a second lawyer said ships such as the Jin Teng might be able to continue some trade because, although the UN Security Council voted to impose tougher sanctions, it would be up to individual member countries to pass legislation to enforce them.

 

Source: arabnews


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