As IMO 2020 deadline nears, shipping sector makes final push to adapt

Benjamin Franklin once said: “You may delay, but time will not.” This is certainly true for the international shipping industry as it prepares for a plethora of stricter environmental rules that are set to bring escalating costs and operational challenges.

Among the upcoming rules, the International Maritime Organization’s global sulfur limit for marine fuels, which will be cut to 0.5% from January 1, 2020, is among the most significant.

While restrictions on sulfur emissions in shipping are not an entirely new concept, as emissions control areas in certain regions have long existed, the transition to the IMO 2020 rule is daunting. The majority of bunker demand will have to switch from high-sulfur fuel oil (HSFO) to 0.5% sulfur almost overnight, calling for extensive planning by shipowners, charterers, ship crew and refiners, among others.

The operational challenges will be manifold, and the costs astronomical. S&P Global Platts Analytics estimates the total global impact of this rule on various sectors in the energy space, as well as other industries, will be in excess of $1 trillion over five years.

Shipowners will have to choose a marine fuel strategically, considering factors such as the age of their vessels, trading routes and locational availability of the various fuel options. They will also have to manage the fuels after bunkering, with critical factors being how many receiving tanks the vessel has and tank segregation requirements.

According to Platts Analytics, the global bunker fuel specification changes in 2020 mean some 3 million b/d of HSFO will have to be replaced. As a result, LSFO, marine gasoil and blended distillates will all play important roles in the bunker fuel mix in 2020 and onward.

 

The exact bunker fuel mix that will prevail is still an unknown, as it will depend on availability of the different fuels as well as their relative pricing. Still, there is growing consensus in the industry now that very low sulfur fuel oil (VLSFO) will be one of the main marine fuel choices come 2020. In fact, either through direct use or blending, gasoil will also be in greater demand because of the sulfur limit change for marine fuels under IMO 2020.

Recent announcements by oil majors such as ExxonMobil, BP, Total, Cepsa, Sinopec on the supply of 0.5% sulfur bunker fuels to meet rising demand have quelled some concerns in the industry about their availability.

There is also the option of equipping a vessel with scrubber technology, which removes sulfur oxides from the exhaust gas of ship engines, meaning HSFO can still be burnt.

Shipowners’ preparations

Most shipowners have already made a conscious choice regarding their bunker fuel choice post-2020.

This includes many big shipping companies such as AP Moller-Maersk, Hapag-Lloyd, Teekay Tankers, BW Group, CMA CGM, Pacific International Lines and Mitsui OSK Lines.

Japan’s MOL, for example, will mainly use low-sulfur fuel oil, but also plans to install sulfur oxides scrubbers on about 50 vessels, mainly VLCC and capesize bulkers, the company said in May.

The company is also advancing plans to use other cleaner fuels – LNG and methanol – for bunkering.

Some container shipping companies, such as Maersk and Hapag Lloyd, plan to use both 0.5% sulfur marine fuels and scrubbers with HSFO to comply with the rule.

But in any case, taking no action is arguably a decision on the part of a shipowner, implying that VLSFO or 0.5% sulfur compliant bunker fuel will likely become their default marine fuel choice.

An important procedure to carry out before switching, as emphasized by the International Bunker Industry Association last year, is cleaning of fuel oil tanks. Failure to do so could see a vessel breach the sulfur limit despite being loaded with compliant fuel, and also carries operational risks, according to the IBIA.

Some global shipping companies, such as Thailand’s Precious Shipping and Norway headquartered Hoegh Autoliners, have already said that they are cleaning bunker tanks on their vessels.

For those who plan to use 0.5% sulfur bunker fuels and haven’t started the clean-out, there should be an urgency to do so to ensure there is no residual heavy sulfur fuel left in them.

Tank cleaning comes with its challenges. Manual tank cleaning is considered the best method, but this needs the vessel to be in dry-dock or anchorage. Tank cleaning can be done with additives but this process requires some cycles.

Another option is to load LSMGO or VLSFO into the tank and flush out the fuel system with the low sulfur fuel oil. There is still a risk that tanks will not be 100% clean at the end of this process.

One large shipowner told Platts that November 30 could be a potential “sweet spot” date to shift to compliant fuels as it would give some leeway to finish off the remainder of HSFO in ships’ tanks and ensure a smooth transition to 0.5% sulfur bunkers.

While tank cleaning is important, tank segregation is also vital. With the multitude of fuels being launched in time for 2020, there is likely to be a wider range of viscosity, requiring temperature adjustments. The risk of compatibility issues may be greater. Therefore, the challenge will still be to keep the fuels segregated to the maximum extent possible.

The scrubbers debate

Alongside fuel switching, exhaust gas cleaning systems – known as scrubbers – will be an important solution for compliance with IMO 2020, at least initially, and will help alleviate some of the pressure on 0.5% sulfur bunker fuels.

The Exhaust Gas Cleaning Systems Association, or EGCSA, reckons that around 4,000 ships will be fitted with scrubbers globally by January 1, 2020, though other estimates are lower. CE Delft, which acts as a consultant to the IMO, has forecast some 3,000 ships will be fitted with the technology by 2020, while Platts Analytics estimates that around 2200 ships will be ready with scrubbers by January 1, 2020.

But scrubbers have their own issues. Some argue that “open-loop” scrubbers – which discharge wastewaster – do not address environmental issues as they simply take sulfur out of the air and put it into the ocean. Others argue that this is an oversimplification and ignores the fact that the IMO has set out guidelines for cleaning systems which include washwater discharge and monitoring criteria to safeguard against environmental damage.

However, a handful of nations and ports have decided to operate independently of the IMO and have introduced local requirements for the operation of scrubbers.

In January, the Port of Fujairah – the key bunkering location in the Middle East – issued a notice banning the use of open-loop scrubbers in its port waters. China has already implemented a ban, from January 1, in its emission control areas covering inland waters and most of its coastline including Bohai Bay waters. Singapore is set to implement a ban from January 1, 2020, with ships that wish to dispose of exhaust gas cleaning residues in Singapore required to engage a licensed toxic industrial waste collector.

Washwater discharge from open-loop scrubbers has also been banned in many other regions including Belgium, California and Massachusetts in the US, along Germany’s Rhine River as well as the Irish Port of Waterford.

Despite some skepticism towards open-loop scrubbers, Japan has decided it will support their use after a study conducted by its Ministry of Land, Infrastructure, Transport and Tourism concluded that no short-term or long-term effects on marine organisms were likely to be caused by the use of this technology.

Meanwhile, the Clean Shipping Alliance 2020 in June said it welcomed the preliminary results of an independent study presented by CE Delft, which indicated that accumulated concentrations of exhaust gas cleaning systems wash water components are at very low levels, and well below applicable regulatory limits.

Another issue cited against scrubbers is their high upfront capital costs. Costs generally range between $2 million and $10 million per vessel. If a company such as Maersk were to outfit its roughly 300 vessels with scrubbers at an average cost of $5 million per vessel, this would amount to $1.5 billion, Moody’s Investors Service said recently in a research report.

Maersk has so far disclosed about $263 million of contractual commitments for scrubber investments.

Sulfur spreads

Still, for some market participants, the investment case for a scrubber remains fairly strong with widespread expectations that the price of HSFO will decline sharply after 2020, while the price of LSFO/MGO will remain high, at least in the initial years following 2020. This means that the payback time for scrubbers could still be relatively short despite their initial costs.

Although there is still a lot of uncertainty over how great the premium of LSFO over HSFO will be, the expected tight supply of compliant fuels suggests that the premium will be strong enough to recover the cost of scrubbers within the first two years, Drewry Maritime Research said in May.

Drewry expects the average price premium of LSFO over HSFO to be around $240/mt in 2020, gradually declining to close to $80/mt by 2023 once the LSFO supply improves.

Under the Platts Analytics reference case, gasoil-HSFO spreads are expected to reach the peak of a little over $350/mt in early the year, but then will ease back.

“We don’t know what the price of compliant fuel is going to be, and the market doesn’t know,” Hamish Norton, the president of Star Bulk Carriers, said in April. “The only way to hedge is to put in a scrubber that allows you to use residual fuel oil, which will always exist.”

BIMCO, the world’s largest international shipping association, said last year that there was anecdotal evidence that there might be a significant premium on long-term charters for oil tankers with a scrubber installed over similar ships without one.

Some expect the adoption of scrubbers to split the time-charter market into two tiers. Some charterers are likely to be willing to pay higher prices for scrubber-installed ships because it would allow them to burn a cheaper fuel, thereby trimming their operational costs. As the deadline on the new marine fuel norms draws closer, the trend of compliant ships fetching a premium will only gather steam, according to some analysts.

Green loans are also paving the way for shipowners to install this technology as banks and other financial institutions lend their support to environmental goals. In October 2018, Star Bulk Carriers said it had secured a $310 million loan including a $70 million tranche to exclusively finance the procurement and retrofitting of scrubbers for up to about 50 vessels in its fleet.

Early this year, law firm Watson Farley & Williams said it advised BNP Paribas as coordinating bank and agent, together with a syndicate of four other banks as lenders, in connection with a $439 million financing backed by China’s export credit agency Sinosure of 86 scrubbers for the Mediterranean Shipping Company (MSC), which are to be fitted in China.

Japan’s Nippon Yusen Kabushiki Kaisha, or NYK Line, said in March it had entered into a Yen 9 billion ($81.5 million) syndicated loan agreement to fund installation of scrubber systems on its vessels. According to the company, that was Japan’s first syndicated loan to be certified by the Japan Credit Rating Agency with its highest ranking of “Green 1,” demonstrating the loan was aligned with the core components of the internationally recognized Green Loan Principles.

Ensuring compliance

It is expected there will be a high degree of compliance with the IMO 2020 rule, particularly in the major ports, as stringent checks will be in place with stiff penalties likely to be enforced.

Shipowners who do not comply run the risk of considerable damage to their reputation among charterers and customers. A growing number of shipowners and operators are already developing ship implementation plans, which will mitigate risks and help with compliance.

The largest sources of bunker demand – the biggest container ships, dry bulk carriers – will have to be compliant, so non-compliance will only ever represent a small fraction of global bunker demand. One industry consultant told Platts that non-compliance will at most be 10% in the initial months following 2020.

Meanwhile, port authorities are also stepping up efforts to aid checks. Singapore, the world’s largest bunkering port, has already unveiled a list of measures to help the industry.

MPA will inspect Singapore-registered ships and foreign-registered ships calling at Singapore in accordance with the Flag State and Port State Control regimes, respectively.

“Like the violation of other MARPOL Annex VI requirements, the owner and the master of the ship may be fined up to S$10,000 ($7,392) or imprisoned for a term not exceeding two years, or both, for non-compliance of these regulations,” an MPA spokeswoman told Platts in April.

Collaborate for success

The automaker Henry Ford once said: “Coming together is a beginning. Keeping together is progress. Working together is success.” This could not be more apt in the context of the IMO 2020 rule, where so many stakeholders are involved.

The charterer, owner, ship crew and manager, for example, must be involved while planning for the fuel switchover, to ensure a smooth transition. The ship’s crew will likely have to deal with more varied fuels. Trialing such fuels ahead of 2020 could help them manage the many challenges.

Refiners also need to educate their customers about the fuels specifications they intend to supply and the ports where such fuels will be available.  Many of them are already engaging with their customers.

Meanwhile, bunker traders are providing credit to both buyers and suppliers at a time when shipping faces headwinds due to this rule and other impending environmental regulations.

Pricing agencies are also playing their part to bring transparency to a market that currently has limited liquidity, while international shipping industry associations such as BIMCO are already developing bunker clauses to supplement contracts, to aid preparations for 2020.

Platts, for its part, has been publishing daily price assessments for IMO-compliant Marine Fuel 0.5% bunkers on delivered and ex-wharf bases at key ports globally since July 1, 2019. Platts has also launched daily cargo and barge assessments for Marine Fuel 0.5% reflecting residual marine fuels with a maximum sulfur limit of 0.5% at key ports across the globe starting January 2, 2019.

In the end, as IBIA says, “the best course of action is for all parties to try their best to be ready for 2020… Society will judge the entire sector harshly if it fails.”

Benjamin Franklin once said: “You may delay, but time will not.” This is certainly true for the international shipping industry as it prepares for a plethora of stricter environmental rules that are set to bring escalating costs and operational challenges.

Among the upcoming rules, the International Maritime Organization’s global sulfur limit for marine fuels, which will be cut to 0.5% from January 1, 2020, is among the most significant.

While restrictions on sulfur emissions in shipping are not an entirely new concept, as emissions control areas in certain regions have long existed, the transition to the IMO 2020 rule is daunting. The majority of bunker demand will have to switch from high-sulfur fuel oil (HSFO) to 0.5% sulfur almost overnight, calling for extensive planning by shipowners, charterers, ship crew and refiners, among others.

The operational challenges will be manifold, and the costs astronomical. S&P Global Platts Analytics estimates the total global impact of this rule on various sectors in the energy space, as well as other industries, will be in excess of $1 trillion over five years.

Shipowners will have to choose a marine fuel strategically, considering factors such as the age of their vessels, trading routes and locational availability of the various fuel options. They will also have to manage the fuels after bunkering, with critical factors being how many receiving tanks the vessel has and tank segregation requirements.

According to Platts Analytics, the global bunker fuel specification changes in 2020 mean some 3 million b/d of HSFO will have to be replaced. As a result, LSFO, marine gasoil and blended distillates will all play important roles in the bunker fuel mix in 2020 and onward.

 

The exact bunker fuel mix that will prevail is still an unknown, as it will depend on availability of the different fuels as well as their relative pricing. Still, there is growing consensus in the industry now that very low sulfur fuel oil (VLSFO) will be one of the main marine fuel choices come 2020. In fact, either through direct use or blending, gasoil will also be in greater demand because of the sulfur limit change for marine fuels under IMO 2020.

Recent announcements by oil majors such as ExxonMobil, BP, Total, Cepsa, Sinopec on the supply of 0.5% sulfur bunker fuels to meet rising demand have quelled some concerns in the industry about their availability.

There is also the option of equipping a vessel with scrubber technology, which removes sulfur oxides from the exhaust gas of ship engines, meaning HSFO can still be burnt.

Shipowners’ preparations

Most shipowners have already made a conscious choice regarding their bunker fuel choice post-2020.

This includes many big shipping companies such as AP Moller-Maersk, Hapag-Lloyd, Teekay Tankers, BW Group, CMA CGM, Pacific International Lines and Mitsui OSK Lines.

Japan’s MOL, for example, will mainly use low-sulfur fuel oil, but also plans to install sulfur oxides scrubbers on about 50 vessels, mainly VLCC and capesize bulkers, the company said in May.

The company is also advancing plans to use other cleaner fuels – LNG and methanol – for bunkering.

Some container shipping companies, such as Maersk and Hapag Lloyd, plan to use both 0.5% sulfur marine fuels and scrubbers with HSFO to comply with the rule.

But in any case, taking no action is arguably a decision on the part of a shipowner, implying that VLSFO or 0.5% sulfur compliant bunker fuel will likely become their default marine fuel choice.

An important procedure to carry out before switching, as emphasized by the International Bunker Industry Association last year, is cleaning of fuel oil tanks. Failure to do so could see a vessel breach the sulfur limit despite being loaded with compliant fuel, and also carries operational risks, according to the IBIA.

Some global shipping companies, such as Thailand’s Precious Shipping and Norway headquartered Hoegh Autoliners, have already said that they are cleaning bunker tanks on their vessels.

For those who plan to use 0.5% sulfur bunker fuels and haven’t started the clean-out, there should be an urgency to do so to ensure there is no residual heavy sulfur fuel left in them.

Tank cleaning comes with its challenges. Manual tank cleaning is considered the best method, but this needs the vessel to be in dry-dock or anchorage. Tank cleaning can be done with additives but this process requires some cycles.

Another option is to load LSMGO or VLSFO into the tank and flush out the fuel system with the low sulfur fuel oil. There is still a risk that tanks will not be 100% clean at the end of this process.

One large shipowner told Platts that November 30 could be a potential “sweet spot” date to shift to compliant fuels as it would give some leeway to finish off the remainder of HSFO in ships’ tanks and ensure a smooth transition to 0.5% sulfur bunkers.

While tank cleaning is important, tank segregation is also vital. With the multitude of fuels being launched in time for 2020, there is likely to be a wider range of viscosity, requiring temperature adjustments. The risk of compatibility issues may be greater. Therefore, the challenge will still be to keep the fuels segregated to the maximum extent possible.

The scrubbers debate

Alongside fuel switching, exhaust gas cleaning systems – known as scrubbers – will be an important solution for compliance with IMO 2020, at least initially, and will help alleviate some of the pressure on 0.5% sulfur bunker fuels.

The Exhaust Gas Cleaning Systems Association, or EGCSA, reckons that around 4,000 ships will be fitted with scrubbers globally by January 1, 2020, though other estimates are lower. CE Delft, which acts as a consultant to the IMO, has forecast some 3,000 ships will be fitted with the technology by 2020, while Platts Analytics estimates that around 2200 ships will be ready with scrubbers by January 1, 2020.

But scrubbers have their own issues. Some argue that “open-loop” scrubbers – which discharge wastewaster – do not address environmental issues as they simply take sulfur out of the air and put it into the ocean. Others argue that this is an oversimplification and ignores the fact that the IMO has set out guidelines for cleaning systems which include washwater discharge and monitoring criteria to safeguard against environmental damage.

However, a handful of nations and ports have decided to operate independently of the IMO and have introduced local requirements for the operation of scrubbers.

In January, the Port of Fujairah – the key bunkering location in the Middle East – issued a notice banning the use of open-loop scrubbers in its port waters. China has already implemented a ban, from January 1, in its emission control areas covering inland waters and most of its coastline including Bohai Bay waters. Singapore is set to implement a ban from January 1, 2020, with ships that wish to dispose of exhaust gas cleaning residues in Singapore required to engage a licensed toxic industrial waste collector.

Washwater discharge from open-loop scrubbers has also been banned in many other regions including Belgium, California and Massachusetts in the US, along Germany’s Rhine River as well as the Irish Port of Waterford.

Despite some skepticism towards open-loop scrubbers, Japan has decided it will support their use after a study conducted by its Ministry of Land, Infrastructure, Transport and Tourism concluded that no short-term or long-term effects on marine organisms were likely to be caused by the use of this technology.

Meanwhile, the Clean Shipping Alliance 2020 in June said it welcomed the preliminary results of an independent study presented by CE Delft, which indicated that accumulated concentrations of exhaust gas cleaning systems wash water components are at very low levels, and well below applicable regulatory limits.

Another issue cited against scrubbers is their high upfront capital costs. Costs generally range between $2 million and $10 million per vessel. If a company such as Maersk were to outfit its roughly 300 vessels with scrubbers at an average cost of $5 million per vessel, this would amount to $1.5 billion, Moody’s Investors Service said recently in a research report.

Maersk has so far disclosed about $263 million of contractual commitments for scrubber investments.

Sulfur spreads

Still, for some market participants, the investment case for a scrubber remains fairly strong with widespread expectations that the price of HSFO will decline sharply after 2020, while the price of LSFO/MGO will remain high, at least in the initial years following 2020. This means that the payback time for scrubbers could still be relatively short despite their initial costs.

Although there is still a lot of uncertainty over how great the premium of LSFO over HSFO will be, the expected tight supply of compliant fuels suggests that the premium will be strong enough to recover the cost of scrubbers within the first two years, Drewry Maritime Research said in May.

Drewry expects the average price premium of LSFO over HSFO to be around $240/mt in 2020, gradually declining to close to $80/mt by 2023 once the LSFO supply improves.

Under the Platts Analytics reference case, gasoil-HSFO spreads are expected to reach the peak of a little over $350/mt in early the year, but then will ease back.

“We don’t know what the price of compliant fuel is going to be, and the market doesn’t know,” Hamish Norton, the president of Star Bulk Carriers, said in April. “The only way to hedge is to put in a scrubber that allows you to use residual fuel oil, which will always exist.”

BIMCO, the world’s largest international shipping association, said last year that there was anecdotal evidence that there might be a significant premium on long-term charters for oil tankers with a scrubber installed over similar ships without one.

Some expect the adoption of scrubbers to split the time-charter market into two tiers. Some charterers are likely to be willing to pay higher prices for scrubber-installed ships because it would allow them to burn a cheaper fuel, thereby trimming their operational costs. As the deadline on the new marine fuel norms draws closer, the trend of compliant ships fetching a premium will only gather steam, according to some analysts.

Green loans are also paving the way for shipowners to install this technology as banks and other financial institutions lend their support to environmental goals. In October 2018, Star Bulk Carriers said it had secured a $310 million loan including a $70 million tranche to exclusively finance the procurement and retrofitting of scrubbers for up to about 50 vessels in its fleet.

Early this year, law firm Watson Farley & Williams said it advised BNP Paribas as coordinating bank and agent, together with a syndicate of four other banks as lenders, in connection with a $439 million financing backed by China’s export credit agency Sinosure of 86 scrubbers for the Mediterranean Shipping Company (MSC), which are to be fitted in China.

Japan’s Nippon Yusen Kabushiki Kaisha, or NYK Line, said in March it had entered into a Yen 9 billion ($81.5 million) syndicated loan agreement to fund installation of scrubber systems on its vessels. According to the company, that was Japan’s first syndicated loan to be certified by the Japan Credit Rating Agency with its highest ranking of “Green 1,” demonstrating the loan was aligned with the core components of the internationally recognized Green Loan Principles.

Ensuring compliance

It is expected there will be a high degree of compliance with the IMO 2020 rule, particularly in the major ports, as stringent checks will be in place with stiff penalties likely to be enforced.

Shipowners who do not comply run the risk of considerable damage to their reputation among charterers and customers. A growing number of shipowners and operators are already developing ship implementation plans, which will mitigate risks and help with compliance.

The largest sources of bunker demand – the biggest container ships, dry bulk carriers – will have to be compliant, so non-compliance will only ever represent a small fraction of global bunker demand. One industry consultant told Platts that non-compliance will at most be 10% in the initial months following 2020.

Meanwhile, port authorities are also stepping up efforts to aid checks. Singapore, the world’s largest bunkering port, has already unveiled a list of measures to help the industry.

MPA will inspect Singapore-registered ships and foreign-registered ships calling at Singapore in accordance with the Flag State and Port State Control regimes, respectively.

“Like the violation of other MARPOL Annex VI requirements, the owner and the master of the ship may be fined up to S$10,000 ($7,392) or imprisoned for a term not exceeding two years, or both, for non-compliance of these regulations,” an MPA spokeswoman told Platts in April.

Collaborate for success

The automaker Henry Ford once said: “Coming together is a beginning. Keeping together is progress. Working together is success.” This could not be more apt in the context of the IMO 2020 rule, where so many stakeholders are involved.

The charterer, owner, ship crew and manager, for example, must be involved while planning for the fuel switchover, to ensure a smooth transition. The ship’s crew will likely have to deal with more varied fuels. Trialing such fuels ahead of 2020 could help them manage the many challenges.

Refiners also need to educate their customers about the fuels specifications they intend to supply and the ports where such fuels will be available.  Many of them are already engaging with their customers.

Meanwhile, bunker traders are providing credit to both buyers and suppliers at a time when shipping faces headwinds due to this rule and other impending environmental regulations.

Pricing agencies are also playing their part to bring transparency to a market that currently has limited liquidity, while international shipping industry associations such as BIMCO are already developing bunker clauses to supplement contracts, to aid preparations for 2020.

Platts, for its part, has been publishing daily price assessments for IMO-compliant Marine Fuel 0.5% bunkers on delivered and ex-wharf bases at key ports globally since July 1, 2019. Platts has also launched daily cargo and barge assessments for Marine Fuel 0.5% reflecting residual marine fuels with a maximum sulfur limit of 0.5% at key ports across the globe starting January 2, 2019.

In the end, as IBIA says, “the best course of action is for all parties to try their best to be ready for 2020… Society will judge the entire sector harshly if it fails.”

———————————————————————
Sep 2019

 

 

 

Bloom Energy and Samsung Heavy Industries Team Up to Build Ships Powered by Solid Oxide Fuel Cells

SAN JOSE, Calif Bloom Energy and Samsung Heavy Industries (SHI), a part of Samsung Group, today announced a collaboration to design and develop ships powered by Bloom Energy’s solid oxide fuel cell technology. Bloom Energy is the world’s leading provider of stationary fuel cells and SHI is one of the world’s largest shipbuilding companies.

SHI aims to be the first shipbuilder to deliver a large cargo ship for ocean operation powered by fuel cells running on natural gas. Such an innovation will play a key role in helping the company exceed the 50 percent emissions reduction target, compared to 2008 levels, that the International Maritime Organization (IMO) has mandated all shipbuilders should achieve by 2050. The IMO, an arm of the United Nations, is the global standard-setting agency for the safety, security, and environmental performance of international shipping.

The two companies have already taken an important first step towards commercializing the maritime use of fuel cells for propulsion and auxiliary power. At a ceremony in the SHI Geoje shipyard, Samsung Heavy Industries announced they have received Approval in Principle from DNV GL, the internationally accredited marine shipping registrar and classification society, in collaboration with Bloom Energy to proceed with a fuel cell-powered ship design for Aframax crude oil tankers (COTs).

“As regulations to reduce GHG emissions take effect step-by-step, the introduction of fuel cells to vessels is inevitable. This approval, and being the first shipbuilder to secure this marine fuel cell technology, illustrates that Samsung Heavy is highly likely to lead the market,” said Kyunghee Kim, vice president of SHI Outfitting Engineering Team.

“It is a meaningful GHG emissions reduction measure to apply Bloom Energy’s fuel cell system to SHI’s new Aframax design. SHI’s new Aframax design is equipped with a new generating system in combination of the conventional, generator engines, and the new fuel cell technology, both fueled with LNG,” said Hwa Lyong Lee, vice president of Regional Business Development, Maritime at DNV GL. “This innovative design is one of the ways to improve GHG emissions, to further make LNG a solid and long-term solution.”

Today, 80 percent of the world’s shipping fleet runs on heavy fuel oil, or bunker fuel. The combustion of this fuel to provide propulsion and auxiliary power to ships causes the marine transport industry to produce between 2% and 3% of global carbon emissions. If the global marine shipping industry was a country, it would be the sixth largest producer of greenhouse gas (GHG) emissions in the world.

Replacing combustion-based power generation from bunker oil with electrochemical conversion of liquid natural gas (LNG) through fuel cells could have a profound impact on carbon emissions from marine transportation. Bloom Energy and SHI estimate that replacing oil-based power generation on large cargo ships, which require up to 100 megawatts of power per ship, could reduce annual greenhouse gas emissions from shipping by 45 percent.

Combustion of bunker fuel also emits sulfur and particulate matter that causes respiratory illness. A 2018 study found that health impacts due to pollution from shipping include 14 million cases of childhood asthma annually and 400,000 premature deaths a year from lung cancer and cardiovascular disease.

“Bloom Energy has already helped companies around the world reduce their carbon emissions by more than four billion pounds of CO2,” said KR Sridhar, founder, chairman and CEO of Bloom Energy. “Bringing the Bloom Energy Server’s transformative clean technology to the shipping industry provides us with a tremendously exciting opportunity to accelerate the decarbonization of another vital sector of the global economy.”

In contrast to bunker fuel combustion, Bloom Energy solid oxide fuel cells generate electric power through an electrochemical reaction, without combustion, that virtually eliminates particulate emissions, NOx, and SOx – an important consideration for the shipping industry.

Bloom Energy Servers use natural gas, biogas or hydrogen as fuel. Bloom Energy and SHI envision onboard fuel cells being powered by natural gas, converted from liquefied natural gas (LNG), which is already commonly transported by marine shipping worldwide.

The modularity of Bloom Energy Servers makes them well suited to the space constraints of ships. Unlike large, multi-megawatt generating combustion engines, Bloom Energy Servers can be deployed in increments as small as 200 kilowatts, enabling power sources to be distributed throughout a ship to optimize space utilization. SHI envisions Bloom Energy Servers displacing existing power generation sets, and therefore requiring no additional space, or even reducing the total space required for power generation.

Bloom Energy Servers have been deployed hundreds of times on land including on-site at commercial and industrial businesses, counting 25 of the Fortune 100 companies. The same technology has been approved by DNV GL to be deployed aboard ships with minor modifications to suit ship installation and use in an enclosed environment.

Bloom Energy recently announced the capability of its fuel cells to run on hydrogen. As nations and ports develop their hydrogen infrastructure, fuel cell-powered ships could transition from natural gas fuel to hydrogen fuel and become zero-carbon and zero-smog emitters.

Cautionary Note Regarding Forward-Looking Statements:

Certain information contained in this release is forward-looking information within the meaning of the “safe harbor” provisions of the U.S. Private Securities Litigation Reform Act of 1995. Forward-looking information includes, among other things, statements concerning the planned fuel cell project.

The following factors, in addition to those discussed in Bloom Energy’s Annual Report on Form 10-K for the year ended December 31, 2018, and subsequent securities filings, and Bloom Energy Corporation’s Quarterly Report on Form 10-Q for the quarter ended June 30, 2019 and subsequent filings with the Securities and Exchange Commission, could cause actual results to differ materially from each company’s expectations as suggested by such forward-looking information: the ability to develop the fuel cell capable for marine transport; development cost or schedule delays; changes or proposed changes in applicable laws, regulations, permits or other requirements of marine operations The information in this press release is as of September 21, 2019. Bloom Energy Corporation expressly disclaim any obligation to update any forward-looking information, except as required by law.

About Bloom Energy

Bloom Energy’s mission is to make clean, reliable, and affordable energy for everyone in the world. The Company’s product, the Bloom Energy Server, delivers highly reliable and resilient, ‘Always-On’ electric power that is clean and sustainable. Bloom’s customers include 25 of the Fortune 100 companies and leaders in cloud services and data centers, healthcare, retail, financial services, utilities and many other industries. For more information, visit www.bloomenergy.com

———————————————————————
June 2019

 

 

New clean shipping fuel rules, but who polices the polluters?

LONDON (Reuters) – Sweeping new fuel rules aiming to cut pollution belching from ships and save lives are now just a couple of weeks away but with no central policing agency and several countries still not signed up to them, compliance is a major concern.

From January 2020, ships must use fuel with a sulfur content of 0.5%, down from 3.5%, or install devices that strip out the toxic pollutant – known as scrubbers.

As a result, refiners and shipping companies will spend billions of dollars in the years ahead on ensuring fuel and engines comply.

But enforcement of the United Nations convention on cleaner fuels – known as MARPOL Annex VI – rests with individual countries and flag states, meaning for some routes and regions, compliance is already looking patchy.

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Aug 2019

 

 

Whales in ice-free Arctic face emerging threat from vessels

In the Arctic, marine mammals such as belugas and bowhead whales rely on a quiet environment to communicate and forage. But as Arctic sea ice shrinks and shipping traffic increases, vessel disturbance could very likely impact their social behaviours, distribution and long-term survival, warns a new study led by University of Victoria marine biologist Lauren McWhinnie.

Published in the peer-reviewed journal Ocean and Coastal Management, the study calls for precautionary measures to minimize the negative impacts of increased vessel traffic in the Arctic—such as noise and ship strikes—as climate change brings a longer ice-free season.

“We can start by trying to apply the lessons learned from vessel management in heavily trafficked southern regions while we still have the opportunity to do things right in the Arctic,” says McWhinnie, a post-doctoral researcher in UVic’s geography department. “A voluntary restriction on vessel speed will reduce the likelihood of ship strikes and contribute to reducing noise levels. Other trial studies have shown that slower vessels pose less risk to marine mammals.”

By examining management plans from over 1,000 international Marine Protected Areas, the researchers identified and evaluated 14 vessel management tools to assess their potential suitability for use in an Arctic environment. After evaluating each tool, researchers recommend that at least two of these spatial tools are suitable for the Arctic: a voluntary exclusion zone (avoidance) and a voluntary speed reduction zone (slow down).

A voluntary restriction on vessel speed will reduce the likelihood of ship strikes and contribute to reducing noise levels. Other trial studies have shown that slower vessels pose less risk to marine mammals.

Depending on the size of the area where these measures are deployed, this study found that they would only significantly affect very large and fast vessels travelling further from shore rather than smaller community boats operating closer to shore. The study area was in the eastern Beaufort Sea of the western Canadian Arctic, near the western entrance of the Northwest Passage, a crucial area for managing ship traffic in the future.

“The important thing is that we start considering these problems now while we still have a window of opportunity to do something about this issue and before these animals are in the position of their more southerly endangered counterparts, such as the southern resident killer whales in BC and northern right whales on the East Coast,” says McWhinnie.

Wildlife Conservation Society Canada, a co-author and partner of the study, is sharing the study results with local and federal governments, coastal communities and the shipping industry.

 

 

Vessel formerly known as “Boaty McBoatface” launched

The British Antarctic Survey’s (BAS) state-of-the-art polar research ship Boaty McBoatface was launched on Saturday July 14 at the Cammell Laird shipyards on the River Mersey. Okay, its name is actually Royal Research Ship (RRS) Sir David Attenborough after the Natural Environment Research Council (NERC) rejected the McBoatface moniker after it won a public vote in 2016, but it’s still the largest civilian ship to be built in Britain in 30 years.

In front of an audience of shipyard workers, engineers, scientists, and maritime industry experts, the Attenborough slid into the water at 12:20 pm BST as Sir David himself and BAS Director Professor Dame Jane Francis pressed a large, green launch button that sent the bright red hull number 1390 down the ramp. It was then collected by three tugs and warped to a wet basin at Cammell Laird where its superstructure and equipment will be installed in the run up to its entering service next year.

Named after the famed nature documentary maker, RRS Sir Richard Attenborough is a floating polar laboratory that replaces the RRS Ernest Shackleton and RRS James Clarke Ross. The new ship will carry 60 scientists and support staff and operate under the BAS in both the Antarctic and the Arctic. It’s 129.6 m (425 ft) long, 25 m (82 ft) abeam, has a draft of 7.5 m (24 ft), displaces 12,790 tonnes (14,098 tons), and has 4,200 m³ (148,000 ft³) of cargo space.

 

In 2016, the BAS invited the public to vote on the name for the £200-million (US$284-million) vessel. While expecting something suitably dignified to win, the poll ended in a surprise victory for Boaty McBoatface with 124,109 votes. The NERC then exercised its veto and chose its present name instead.

“Britain began exploring the Antarctic over a century ago when it seemed to be an empty wilderness of little importance to the world as a whole,” says Sir David. “Now we recognize that what happens at the Poles is of the greatest importance to everyone, everywhere. The UK and the British Antarctic Survey have been making discoveries in both regions that enable us to better understand these global processes and this wonderful new research ship will enable British scientists to continue their crucial work in both the Arctic and Antarctic for decades to come.”

The time lapse video below shows RSS Sir David Attenborough being moved into position for launching.

 

The urgency of curbing pollution from ships, explained

The International Maritime Organization, a United Nations agency that regulates global shipping, is writing new rules to curb greenhouse gas emissions from ships by 2050 as it implements other regulations that will mandate cleaner-burning fuels at sea by 2020.

As researchers who study the shipping industry, we have determined that the benefits of greener shipping outweigh the costs. Yet global environmental rule-making, implementation and enforcement take a long time, creating delays that can endanger public health and the environment.

Heavy fuel oil
The more than 52,000 ships crisscrossing ocean trade routes will burn more than 2 billion barrels of heavy fuel oil this year. Heavy fuel oil, a crude oil byproduct, contains sulfur concentrations up to 1,800 times higher than the diesel fuel burned on U.S. highways.

Ships contribute between 2 and 3 percent of the world’s total greenhouse gas emissions, studies show. Unless the world takes action to control noxious air pollutants and reduce greenhouse gases, harmful pollution will grow in tandem with global trade in the coming decades.

Atmospheric processes transform ship exhaust into toxic particles, which drift far from shipping routes. Originating along shipping routes, these pollutants endanger human health and acidify lakes and streams hundreds of miles inland.

Public health hazard
As part of an international team of scholars, we researched how sulfur-related pollution from ships affects human health. Our team found that ship pollution causes about 400,000 premature deaths from lung cancer and cardiovascular disease, and 14 million cases of childhood asthma each year.

Maritime regulation requires cooperation among many, if not most, of the world’s nations, using their shared authority to verify compliance upon arrival in their ports. But at sea, most shipping companies operate relatively independently of the country where they are headquartered.

The International Maritime Organization sets international shipping policies through consensus agreements that specify compliance requirements and leave enforcement up to national authorities. In 2008, governments and industries agreed to adopt cleaner fuels in 2020. Since then, we estimate that ship air pollution exposure contributed to more than 1.5 million premature deaths and aggravated asthma conditions for over 100 million children.

Given the climate benefits of low-carbon shipping, we believe that the world can’t wait three decades to set and enforce shipping greenhouse gas targets.

Ten Scrubber Questions Answered

The Clean Shipping Alliance 2020, a new organization consisting of 25 leading maritime companies representing over 2,000 ships, answers 10 questions about scrubbers.  

1.    How does a scrubber reduce sulfur oxide (SOx) emissions?

A scrubber sprays alkaline water into the vessel’s exhaust, which removes SOx from the ship’s engine and boiler exhaust gases. In a seawater system the sea’s natural alkalinity largely neutralizes the results of SO2 removal before discharge back to the sea. In a fresh water system, the wash-water used for scrubbing and neutralization is treated with an alkaline chemical such as sodium hydroxide. In both cases the sulfates resulting from the SO2 removal will be discharged with the wash-water to the sea.   

2.    Is the sulfur included in the wash-water from the scrubbing process harmful to the sea?

Sulfur in the form of sulfate is the end product of the scrubbing process and is a naturally occurring constituent of seawater and therefore not harmful to the sea. The oceans are the Earth’s natural reservoir of sulfur and play a key role in the sulfur cycle. Sulfur is one of the most common elements and is both biologically necessary and critical to many metabolic processes.

To provide perspective, consider the following: If all the sulfur in the oceans were accumulated at the bottom of the ocean the layer would be five feet thick; adding all the sulfur from all the oil and gas reserves in the world would add only the thickness of a sheet of paper. Compared with the quantity of sulfate existing in the oceans, the small amounts of sulfate contributed by exhaust gas scrubbing are insignificant and benign.

Removing sulfur from the exhaust via the scrubbing process has the important added environmental benefit of reducing the negative impact of emissions to air, as air emissions in the form of SO2 can add to the formation of particulate matter.

3.    Do scrubbers have an acidification effect on seawater?

During the desulfurization process within the scrubber, SO2 gas is absorbed by the seawater spray. Through a series of reactions within the wash-water, the SO2 is converted to an end product of sulfate (SO4), water (H2O) and carbon dioxide (CO2).

During the scrubbing process any decrease in the pH of the wash-water is largely neutralized by the natural alkalinity found in seawater. This ensures that the pH of the discharged water is in compliance with guidelines established by the International Maritime Organization (IMO). The resulting discharge contains only a slight increase in the natural concentration of sulfate in water.

Direct measurements on 40 ships monitored by maritime classification societies while the ships were in port have shown that pH levels of scrubber discharge water revert to ambient seawater pH levels within two to four meters of the discharge point – exceeding the IMO requirement. As shown by a 2012 Danish Environmental Agency study, there is negligible acidification effect from scrubbers, even in semi-enclosed ocean areas with high traffic levels of scrubber-fitted ships.

4.    How is it ensured that the water discharged into the sea does not harm the environment?

The following discharge water parameters are continuously monitored through water analysis instruments, and the results are securely logged against time and the ship’s position:

(a) pH (with temperature compensation),
(b) polycyclic aromatic hydrocarbons (PAH), and
(c) turbidity.

All are per IMO Resolution MEPC 259(68) 2015 Guidelines for Exhaust Gas Cleaning Systems. The data must be retained on board for a period of not less than 18 months from the date of recording and is subject to auditing and verification by port states and by classification societies, on behalf of flag states.

5.    Do scrubbers on ships using heavy fuel oil (HFO) reduce SOx emissions as efficiently as the use of compliant fuel?

According to several studies, such as a 2014 Fridell and Salo study, scrubbers on ships using HFO remove more than 98 percent of the sulfur oxides from the exhaust, resulting in emissions lower in sulfur oxides than those of marine gasoil (MGO), which is considered the benchmark for the IMO’s 0.5 percent sulfur cap scheduled to be implemented on January 1, 2020. As a result, scrubbers are an approved method of compliance with the sulfur regulation by the IMO, European Union and US Environmental Protection Agency.

6.    Do scrubbers reduce other type of emissions as well?

Independent studies and research demonstrate that scrubbers are capable of removing 60 to 90 percent of particulate matter (PM), including a portion of small PMs (10 and 2.5 micron, and ultrafine) which results in releasing fewer PMs in the atmosphere compared to using MGO.

Scrubbers are also effective in removing black carbon (BC), of particular interest because of the potential impact in Arctic regions.

7.    Will the use of scrubbers increase the speed of the vessels and subsequently CO2 emissions? 

No, there is no link between scrubbers and vessel speed. All practical methods which reduce CO2 emissions are welcome, and the option of slow steaming is one way of reducing fuel usage and CO2 emissions that is always available. Scrubbers do not interfere with this in any way.

8.    What other environmental benefits do scrubbers have? 

Scrubbers allow vessels to continue using HFO, a residual fuel with high energy content that is difficult to refine, providing an environmentally sound outlet for this refinery byproduct. To further process HFO, refineries would need to invest heavily in upgrading their facilities, which would take years to materialize.  

Less refining also means less greenhouse gas emissions associated with HFO versus MGO production. Also, the lower combustion temperatures of HFO result in less NOx production at sea.

9.    Is scrubbing technology new to the shipping industry?

Inert gas systems installed on tanker vessels have been using the same principle as exhaust gas scrubbers for decades. Scrubbers for SOx removal have been in operation in the global maritime sector for over 10 years. Currently, hundreds of vessels are successfully using scrubbing technology to comply with the 2015 sulfur regulation in existing Sulfur Emission Control Areas (ECAs) under rules from the IMO/Marine Environment Protection Committee (MEPC) Guidelines, as well as the EU Sulfur Directive, US EPA Vessel General Permit and US Coast Guard Directives.

Scrubbers for SOx removal have also been in successful use on land for many years all over the world and continue today, including for oil-fired power generation plants.  

10.   Are scrubbers a better way to comply with the IMO 2020 sulfur cap compared to compliant fuel?

Both scrubbers and compliant fuel are equally acceptable and environmentally sound methods of compliance with the 2020 sulfur cap, and scrubber use is an equivalency under Marpol VI for global operations. However, CSA 2020 believes that both are essential tools for significantly reducing the environmental impact of the maritime sector.

CSA 2020

CSA 2020 is an international organization formed with the mission of providing information about the environmental benefits of scrubbers

Members of the CSA 2020 include:
1.    Blystad Group
2.    Cargill Inc.
3.    Carnival Corporation
4.    Delta Tankers and Marmaras Navigation
5.    DFDS Group
6.    DHT Holdings
7.    Eagle Bulk Shipping
8.    Eastern Pacific Shipping
9.    Fomento Shipping
10.  Frontline Ltd.
11.  Golden Ocean Group Limited
12.  Grimaldi Group
13.  Hunter Group ASA
14.  John Samonas & Sons Ltd.
15.  Navig8 Group
16.  DS Norden
17.  Okeanis Eco Tankers
18.  Oldendorff Carriers
19.  Olympic Shipping Group
20.  Pacific Carriers Limited
21.  Safe Bulkers, Inc.
22.  Spliethoff
23.  Star Bulk Carriers Corp.
24.  Torm
25.  Trafigura

South Korea to Order 200 Vessels

South Korea will implement a plan to order 200 vessels over three years to bolster the shipping industry – which has been struggling with recent diminished global demand and mounting costs.

The order will feature 140 bulk carriers and 60 container ships, including 20,000 TEU mega vessels and eight 14,000 TEU ships. 

The orders are part of a restructuring plan for national shipping and shipbuilding industries from The Ministry of Oceans and Fisheries, following the industries hit from the bankruptcy of Hanjin Shipping Co. in 2016.

Oceans Minister Kim Young-choon stated: “Following the bankruptcy of Hanjin Shipping, sales of South Korea’s shipping industry were cut by over 10 trillion won, and the tonnage of the deep sea containers has been cut in half.

“We have prepared a set of comprehensive measures to support the shipping and shipbuilding industries grappling with a protracted slump, intense competition and environmental regulations.”

shipping liner, Hyundai Merchant Marine Co., currently has a shipping capacity of 33,000 TEU – making it the 14th-largest liner in the world.

The ministry expects that the vessel orders will raise the company’s capacity to 1 million TEU by 2020.

The nation has also committed to developing eco-friendly and energy containers to be in line with the International Maritime Organizations sulphur cap – coming into enforcement on the 2020.

The ministry has also stated that it will set up an agency in July to encourage and support the order of new ships through investments.

The shipbuilding industry, long considered a central stake in the country’s economy, have been struggling with increased losses and the global industry downturn.

Posted on Categories News

Shipwreck found in Black Sea is ‘world’s oldest intact’

A Greek merchant ship dating back more than 2,400 years has been found lying on its side off the Bulgarian coast.
The 23m (75ft) wreck, found in the Black Sea by an Anglo-Bulgarian team, is being hailed as officially the world’s oldest known intact shipwreck.
The researchers were stunned to find the merchant vessel closely resembled in design a ship that decorated ancient Greek wine vases.The rudder, rowing benches and even the contents of its hold remain intact.“It’s like another world,” Helen Farr from the expedition told the BBC.

“It’s when the ROV [remote operated vehicle] drops down through the water column and you see this ship appear in the light at the bottom so perfectly preserved it feels like you step back in time.”

Posted on Categories News

Rolls-Royce teams up with Google on AI-driven ship awareness

Rolls-Royce has signed a partnership deal with Google to use the latter’s machine learning engine to improve the company’s intelligent awareness systems. Will the technology and collaboration help advance the goal of autonomous shipping? Iiro Lindborg, Rolls-Royce general manager of remote and autonomous operations sheds light on the issue.

It is an idea as disruptive as the smartphone, according to Rolls-Royce’s marine team. “Autonomous shipping,” the company said in a recent position paper, “is the future of the maritime industry,” and “will revolutionise the landscape of ship design and operations”.

As early as 2020, Rolls-Royce envisages a future of reduced crews and previously human jobs supported and operated shore-side. By 2025, the company says there will be remote controlled unmanned coastal vessels and by 2035, fully autonomous unmanned ocean-going ships.

It is a bold vision, but how will it work? At its heart, says Iiro Lindborg, general manager, remote and autonomous operations at ‎Rolls-Royce, is the design of intelligent awareness systems.

“This is the essential ingredient that means you won’t need to have a crew on board,” Lindborg says. “It is about replicating the situational awareness of what is happening around the vessel at all times.”

The road to full automation

Rolls-Royce began developing intelligent awareness systems back in 2015. Its system works by fusing data from a range of sensors, including night-vision, thermal and normal HD cameras, with radar information and life-based sensor systems.

“The first system we are creating will be purely advisory,” Lindborg explains. “In the second phase, we will link the advisory system to the vessel’s control system, which means the machine detecting and observing the vessel can also control the vessel.

“This stage will still have humans in the loop, logging and monitoring the deviations. After that, the third step will involve moving to more autonomous operations where the crew will be monitoring what is going on and the machine will do most of the work.”

Top of Form

Bottom of Form

While that final stage remains some way off, Lindborg hopes the first phase of Rolls-Royce’s intelligent awareness product will become commercially available by the end of 2017.

“We saw a need for these kinds of solutions to be introduced into existing vessels because of the number of incidents they have,” Lindborg says. “These incidents are often related to human errors such as a group being fatigued. Our system is solid and can be used already on vessels as an advisory system to help a crew make better judgement on daily operations.”

“The third step will involve moving to more autonomous operations.”

What type of scenarios could the current system be used in? Lindborg offers the example of a large vessel approaching the port of Shanghai, weaving past dozens of smaller boats, leisure craft and fisherman. Due to the current of the river, which captains must transit through to access the port, ships operating in Shanghai are required to maintain a speed of more than nine knots.

“You need to be aware of where those vessels are at all times,” Lindborg says. “Coupled with the speed, this can be really challenging for vessels. What our system does is detect and also track these boats to help relieve some of that pressure. It means the watch person doesn’t have to be constantly alert, the machine can help them.”

During a recent pilot project, Lindborg says the system performed well.

“Our customers were really happy about the test pilot, the resolutions and the answers that they got from the system,” he says. “It has provided additional safety features for their operations and the crew members also adopted the system well. They said that it increased safety and that it is not just one more system to be used – but is actually there for a purpose.”

Collaboration with Google

To further improve its intelligent awareness systems, Rolls-Royce recently signed a new partnership with Google. The agreement allows Rolls-Royce to use Google’s Cloud Machine Learning Engine to train its own artificial intelligence (AI)-based object classification system, which helps detect and track surface objects.

“We’ve been developing our own machine learning application over the past year and have been looking at possible partners to collaborate with,” Lindborg explains. “Google fits our strategy well and we are partnering with them for our machine learning programme.

“In future applications we are also looking at Google’s speech recognition system. When moving towards autonomous operations, vessels will need to provide information and signals to other vessels. With speech recognition, our system will be able to automatically detect messages and send its own.”

As the company moves closer to designing a fully autonomous vessel, there will be further collaborations, Lindborg adds. “We are looking to build a whole network of companies that can contribute to this end goal of autonomous operations,” he says.

Overcoming barriers

Of course, barriers to full automation remain, chiefly regulation. When a vessel sets sail, it is beholden to a dizzying array of national, international and private laws. And as with self-driving cars, regulatory authorities are playing catch-up.

“Maritime law does not anticipate the development of remote or autonomous ships,” Rolls-Royce said in a recent position paper. “This presents many ambiguities. For example, does a ship’s master or crew necessarily have to be on board the ship? For remote controlled and autonomous shipping to become a reality we need efforts at all regulatory levels.”

Nonetheless, while Lindborg admits the journey ahead will be “a long one”, he is confident the march to autonomous shipping is inexorable. “Development is going faster than we originally thought,” he says. “There is now interest in this field all around the world.”

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Aug 2018

Posted on Categories News