Cargo owners and many of the largest charterers typically require a Condition Assessment (CAP) Survey.  Charterers prefer a CAP Grade of 1 or 2 to fix older vessels identified to carry their cargo. The commercial opportunities for an older tanker, gas carrier, bulk carrier and more recently a containership and an offshore supply vessel without a satisfactory CAP rating may be limited.

WHAT IS CAP?

A Condition Assessment Program is the recognized method for an asset owner to demonstrate the quality and suitability of an asset for charter. The program provides a charterer with a technical evaluation of the physical condition and maintenance of a vessel above the requirements for Class.

The program includes a detailed survey of the vessel’s hull structure including verification of gaugings as well as extensive testing of the vessel’s machinery, equipment and cargo systems. This information combined with a strength and fatigue engineering analysis leads to a numeric rating being assigned to the vessel.

CONDITION ASSESSMENT PROGRAM DETAILS

Assess physical condition and maintenance of vessel above the minimum requirements for Class

  • Review of Class Records
  • Fatigue Analysis
  • Condition Assessment Survey
  • Verification of Gaugings
  • Structural Evaluation
  • CAP Report and Grade

WHY CAP WITH FATIGUE ASSESSMENT?

The major charterers have introduced even tougher CAP standards as a requirement for charter. They demand that the CAP 1 or 2 rating include a detailed Fatigue Assessment. Other charterers are expected to follow this lead. CAP is able to quickly and cost effectively assess the cumulative impact of fatigue on a vessel’s critical structural components.

Source: eagle


US shipbuilder Metal Shark Boats is to supply the US Coast Guard (USCG)’s Research and Development Center (RDC) with a new vessel for the purposes of testing and evaluating the capabilities of autonomous technologies, following a new partnership with Sea Machines Robotics.

The 9-metre monohull pilothouse vessel will come equipped with the Sea Machines SM300 autonomous-command and remote-helm control system, offering capabilities including transit autonomy, collaborative autonomy, collision avoidance and remote vessel monitoring.

Demonstrations are scheduled for October off the coast of Hawaii, where the RDC team will test and evaluate the vessel’s autonomous capabilities for their potential to support USCG surveillance, patrol and other missions. Following the Hawaii demonstrations, the autonomous vessel will be returned to the RDC’s New London facility, where it will take part in additional testing.

“As the premier USCG facility performing research, development, test and evaluation in support of the service’s major missions, the RDC team is eager to observe Sea Machines’ system in action,” said USCG’s Derek Meier, Assistant Demonstration Director.

“The exercises will ultimately help us determine how, when, and if this innovative technology can be used to support personnel who are executing a variety of Coast Guard activities.”

Source: smartmaritimenetwork


The Mayflower Autonomous Ship (MAS), an AI and solar powered marine research vessel, has taken to the water to begin sea trials ahead of its unmanned transatlantic voyage following the route taken by the original Mayflower in 1620.

Following two years of design, construction and training of its AI models, the fully-autonomous trimaran has now been lifted into the waters off the coast of Plymouth, England, as it prepares to spend the next six months undertaking various research missions before attempting to cross the Atlantic in Spring 2021.

The new-generation Mayflower will work in tandem with scientists and other autonomous vessels to provide oceanographic data on issues such as global warming, micro-plastic pollution and marine mammal conservation. The project has been co-ordinated by ocean research non-profit ProMare, working alongside technology company IBM and a number of scientific organisations.

The new Mayflower features a purpose-built AI Captain which gives the vessel the ability to sense, think and make decisions at sea with no human captain or onboard crew. The marine AI is underpinned by IBM’s latest edge computing systems, automation software, computer vision technology and Red Hat Open Source software.

“Able to scan the horizon for possible hazards, make informed decisions and change its course based on a fusion of live data, the Mayflower Autonomous Ship has more in common with a modern bank than its 17th century namesake,” said Andy Stanford-Clark, Chief Technology Officer, IBM UK & Ireland.

“With its ability to keep running in the face of the most challenging conditions, this small ship is a microcosm for every aspiring 21st century business.”

A new interactive web portal has been built at MAS400.com to allow members of the public to follow real-time updates about the ship’s location, environmental conditions and data from its various research projects.

“MAS400.com is one of the most advanced ocean mission web portals ever built,” said Fredrik Soreide, Scientific Director of the Mayflower Autonomous Ship project and Board Member of ProMare.

“Protecting the ocean depends on our ability to engage the public in important matters affecting its health. This MAS400 portal is designed to do exactly that and tell people where the ship is, what speed it’s travelling at, what conditions it’s operating in and what science we are conducting.”

Source: smartmaritimenetwork


Torgeir Sterri, Regional Manager Western Europe and Bjørn-Johan Vartdal, Maritime Digital Director at DNV GL – Maritime discussed developments in autonomous shipping in an interview with The Motorship

While the recent Covid-19 pandemic has accelerated the adoption of digitalisation and Big Data tools both within DNV GL – Maritime itself, and among customers interested in tools such as DATE, eCERTS and remote surveys, a second potentially disruptive technology – autonomous vessels technology – remains some way off reshaping the maritime industry, Torgeir Sterri noted.

Sterri noted that while accelerating research into autonomous technology had led to progress, the challenges connected with autonomous vessels need to be acknowledged.

These challenges were not merely the strains caused by the pace of technological progress outpacing slower moving developments in standards and guidance, or issues around liability, or the location of decision making for remotely operated machinery.

Rather, they were issues around how to ensure that technology meet safety requirements. Sterri emphasised that DNV GL’s prime concern remained ensuring safety at sea.

“It needs to be as safe as – if not better than  – what we have today.”

DNV GL published its first class guideline covering autonomous and remotely operated ships, and its position paper into remote controlled and autonomous ships in the maritime industry back in September 2018, but the pace of development meant rules remains a work in progress, Bjørn-Johan Vartdal added.

“We have the technology today to run autonomous ships, but [not] to ensure that they are sufficiently reliable,” Vartdal said.

DNV GL is continuing to support a product assurance approach rather than a process assurance approach to ensuring the safety of autonomous vessels and systems.

“We would like regulators (IMO or flag states) to define the required safety level for a technology, and for class to come up with the methodologies to define that the required safety level has been met,” Vartdal said.

“Our job as a class society is to find a methodology to demonstrate that something that is designed or made by somebody is as safe or safer than what has been designed today.”

However, the product assurance approach has extended DNV GL’s safety assurance requirements into new areas, requiring new and highly complex methodologies to evaluate the reliability of autonomous systems.

“We are trying to assure that the technology is doing the job of a human in a sufficiently safe manner, which is a different task to ensuring the safety of a vessel’s hull or issuing type approval for a ship’s engine.”

“We have developed advanced simulator tools just for the purpose of evaluating the safety of an autonomous navigation system,” Vartdal noted. Such ‘software-in-the-loop’ solutions can test the reliability of the machine learning underpinning a navigation system in a variety of scenarios.

Research projects

DNV GL has been closely involved in several development projects, including a research project into the remote operation of machinery and automation systems (ROMAS).

With involvement in projects into semi-autonomous and autonomous projects as diverse as MacGregor’s autodocking solution and self-unloading cranes, Bjørn-Johan Vartdal offered a similarly realistic appraisal of autonomous shipping’s prospects.

The potential advantages of automating some functions has already been demonstrated. “We’ve already proven that the reliability and safety of operating machinery can be improved by moving part of the engine control ashore,” Vartdal said, citing the ROMAS project results.

However, full autonomy remained a distant prospect. “I don’t think that we will see anything revolutionary in this area very soon. To develop these technologies will require focus and time,” Vartdal concluded.

The pace of research shows no sign of relenting. Since June, DNV GL has been involved in the new Norwegian University of Science and Technology (NTNU) research centre into safe autonomous shipping, as well as a logistics project to use short-hop autonomous drones for goods distribution.

The new NTNU centre was planning to focus on how to guarantee safety and security in the use of autonomous vessels, alongside new business models and innovations in enabling technologies.

Interestingly, the NTNU research project includes a focus on both deep-sea autonomous shipping and short-sea projects, with separate projects focusing on remote engine room operation, autonomous docking and autonomous crane operations, for instance.

Sterri agreed that an iterative approach was likely, with fully autonomous vessels unlikely to enter service for quite some time, and semi-autonomous or product-level services likely to continue to enter the market first.

Source: motorship


PLYMOUTH, England — The Mayflower is taking to the water in Plymouth harbor.

It’s not the ship that left this southwest England port 400 years ago carrying Pilgrim settlers to America. The sleek vessel being readied Tuesday for its official launch has no passengers, no crew — but like its predecessor, an ambitious mission.

The 50-foot (15-meter) trimaran has “no one on board, no captain, no place to eat, no place to sleep,” said Brett Phaneuf, co-director of the Mayflower Autonomous Ship project. “It’s sophisticated artificial intelligence that will captain the ship across the ocean.”

The ship is set to follow in its forebear’s footsteps by crossing the Atlantic from Plymouth, England, to Plymouth, Massachusetts, this time on a marine research trip. Its creators hope it will be the first in a new generation of high-tech vessels that can explore ocean regions which have been too difficult or dangerous for people to go.

Built by the nonprofit marine research organization ProMare and computing giant IBM, the vessel will be launched and christened on Wednesday, 400 years to the day since the original Mayflower left Plymouth. The ceremony will be attended by officials from Britain, the U.S. — the 17th-century colonists’ origin and destination — and the Netherlands, where the Puritan pilgrims lived in exile before their voyage.

It’s part of 400th anniversary commemorations of the voyage involving the British, Americans, Dutch — and the Wampanoag people native to what is now New England. Wampanoag stories have been marginalized on past anniversaries, but this year play a central role in events and exhibitions on both sides of the Atlantic.

Now, as in 1620, not everything has gone to plan. The Pilgrim colonists set sail for America from Southampton, further along England’s south coast, but had to stop in Plymouth for repairs before finally setting out on Sept. 16, 1620.

The coronavirus pandemic delayed construction of the autonomous ship, and the vessel’s trans-Atlantic voyage has been postponed until 2021. It will undertake six months of sea trials and short trips before setting out across the Atlantic next spring.

People will be able to follow the ship’s voyages and research online. If successful, the 1 million pound ($1.3 million) ship will become the largest-ever autonomous vessel to cross the Atlantic.

Like the original Mayflower, it is powered by the elements — in this case a mix of sun and wind, with a backup diesel generator.

The vessel is packed with instruments to measure ocean health, including water sampling devices to monitor for micro-plastics and an acoustic payload to listen for whales and dolphins.

A range of technologies will help the boat sense the world around it, including cameras and radar to detect hazards. Computing and artificial intelligence systems supplied by IBM — and more commonly used by financial services firms — enable it to make decisions at sea with no human intervention.

“In a way, this ship actually has more to do with like a modern bank than it does with the old Mayflower,” said Don Scott, the project’s chief technology officer.

It’s hoped the vessel could herald a new era for automated research ships. There are plans to build two similar ships, one to work in the Arctic. Such vessels could be particularly useful amid the current global uncertainty, as the coronavirus pandemic cancels research trips and halts vital science field work.

Rosie Lickorish, an IBM software engineer and oceanographer, said the pandemic has had “a real negative effect on the scientific community.”

“So having autonomous ships where we don’t need to rely on people to be on board, that means that we can continue to do that vital research and collect that really important data,” she said.

Despite the pandemic-related setbacks, those involved in the project feel a huge sense of accomplishment — and anticipation.

Phaneuf sees a strong parallel between the two Mayflower voyages four centuries apart: “Neither of us are sure we were going to make it.”

“But our risk is much smaller than their risk — if we don’t make it, no one will be injured, no one will die,” he said. “But we’re going to learn a tremendous amount, no matter how far we get.”

Source: washingtonpost


Last week, the Rolls-Royce led Advanced Autonomous Waterborne Applications Initiative (AAWA) project presented its first findings at a conference in Helsinki, expressing high hopes for vessel automation in commercial service – and predicting that it will arrive soon.

“Autonomous shipping is the future of the maritime industry. As disruptive as the smart phone, the smart ship will revolutionise the landscape of ship design and operations.” said Mikael Makinen, president of Rolls-Royce’s marine division. The firm envisions a future in which new entrants could capture a significant share of business, in the same way as Uber, Spotify and Airbnb have done in other industries.

The AAWA initiative’s researchers suggested that engineering hurdles would not be a major obstacle. “The technologies needed to make remote and autonomous ships a reality exist – the sensor technology needed is sound and commercially available and the algorithms needed for robust decision support systems – the vessel’s ‘virtual captain’ – are not far away. The challenge is to find the optimum way to combine them cost effectively in a marine environment,” said Jonne Poikonen, senior research fellow at the University of Turku and a leader of the project’s technology research.

The consortium will soon begin testing of a sensor package mounted on the Finferries passenger vessel Stella, which operates on protected waters of the Archipelago Sea between Korpo and Houtskär. Dry bulk firm ESL Shipping Limited has also joined to help explore the use of autonomous ships for short sea shipping.

The double-ended ferry Stella (courtesy Finferries / Rolls-Royce)

Rolls-Royce researchers also plan a series of studies on safety and on cybersecurity, which will be used to make recommendations to the IMO and to class societies for rules specific to autonomous ships.

“This is happening. It’s not if, it’s when. This work supports the development of remote controlled and autonomous vessels and will enable proof of concept demonstration following the completion of the project. We will see a remote controlled ship in commercial use by the end of the decade,” said Oskar Levander, VP of innovation at Rolls-Royce Marine.

Source: maritime-executive


Sep 14, 2020 (CDN Newswire via Comtex) — Global Autonomous Ships Market 2020 by Manufacturers, Type and Application, Forecast to 2025 is currently an appended report by MarketsandResearch.biz which exhibits detailed information and an overview of the key influential factors related to the market. The report contains the major aspects related to market growth, development plan, and focuses on significant tactics. The report shows the competitive standing of leading manufacturers in the projection timeline while incorporating their diverse portfolio and regional expansion endeavors. The research has studied the key terms of the global Autonomous Ships market including manufacturing stats, regional analysis, productivity structure, major types, and various end users applicable in the market.

Competitive Rivalry:

Global Autonomous Ships market competitive landscape presents details by vendors, including company overview, company total revenue (financials), market potential, global presence, sales and revenue generated, market share, price, production sites, and facilities, SWOT analysis. Data regarding the capacity, production, value, cost/profit, supply/demand import/export are provided. The report shows an accurate competitive analysis of major market players and their strategies during the projection timeline from 2020 to 2025.

NOTE: Our report highlights the major issues and hazards that companies might come across due to the unprecedented outbreak of COVID-19.

DOWNLOAD FREE SAMPLE REPORT:https://www.marketsandresearch.biz/sample-request/97027

The report covers a number of the players in the market, including: Kongsberg, DARPA, Rolls-Royce, HNA Group, ASV, Mitsui O.S.K. Lines, NYK Line

Product Terrain:

Remuneration accrued by each product type has been mentioned in this global Autonomous Ships. Market share held by all product segments is included. The report includes growth rate estimates for all product types over the forecast duration.

Product types: Maritime Autonomous Ships, Small Autonomous Ships

Application Scope:

Details regarding consumption value and the volume of each application are included. The market share of each application segment, together with its projected growth rate over the evaluation period has been estimated.

Application spectrum: Commercial & Scientific, Military & Security

Considering the global perspective, the report presents an overall global Autonomous Ships market by size by analyzing historical data and future prospective. The report focuses on several key regions including North America (United States, Canada and Mexico), Europe (Germany, France, United Kingdom, Russia and Italy), Asia-Pacific (China, Japan, Korea, India, Southeast Asia and Australia), South America (Brazil, Argentina), Middle East & Africa (Saudi Arabia, UAE, Egypt and South Africa)

Importance of the Global Autonomous Ships Market Report:

The cost analysis of the global market has been performed while keeping in view manufacturing expenses, labor cost, and raw materials and their market concentration rate, suppliers, and price trend. The report consists of financial data obtained from various research sources to provide specific and accurate analysis. The report contains historical revenue and volume that backing information about the market capacity, and it helps to evaluate projection numbers for key areas in the global Autonomous Ships market.

ACCESS FULL REPORT:https://www.marketsandresearch.biz/report/97027/global-autonomous-ships-market-2020-by-manufacturers-type-and-application-forecast-to-2025

A Peek At Over the Highlights of the Report:

  • The study provides a synopsis of the product scope of the global Autonomous Ships market. The product range of the market has been further categorized.
  • Information about the production volume and the price trends are provided in the report.
  • Data related to the market industry concentration rate with respect to the raw materials are present in the report.
  • Data with respect to marketing channel development trends along with the global Autonomous Ships market position is provided in the report.

LONDON — Humans aren’t the only ones to have had their travel plans ruined by the coronavirus. A robot-powered boat that was due to cross the Atlantic this month has been forced to delay its voyage until next April after the virus caused complications in its development.

The autonomous 15-meter trimaran has been built to push the boundaries of autonomous shipping while gathering scientific data on the ocean. The Mayflower Autonomous Research Ship (MAS for short) is being led by marine research organization ProMare, while IBM is the main technology partner.

The solar-powered vessel is set to start trials off the south coast of England in the coming weeks and it will be officially unveiled on Sep. 16, the 400th anniversary of the Mayflower departure in 1620. After that, it will go on several voyages and missions over the next six months ahead of a transatlantic voyage in April 2021.

During that transatlantic crossing, the ultramodern ship will broadly retrace the Mayflower’s original route from Plymouth to Cape Cod’s Provincetown.

A computer-generated image of the new Mayflower vessel.
A computer-generated image of the new Mayflower vessel.
University of Birmingham’s Human Interface Technologies Team (HIT)

Andy Stanford-Clark, chief technology officer for IBM U.K. and Ireland, who’s leading the science on the ship, told CNBC that the vessel relies on an onboard AI Captain which uses computer vision, automation software and Watson technology — IBM’s most notable AI platform.

The ship’s operators tell the Mayflower where they want it to go and then it will figure out how to get there itself, considering the weather, ocean currents, collision regulations and other variables. The Mayflower can also react to ocean traffic in real time using a combination of radar, cameras, and the Automated Identification System (AIS), which transmits information such as the Mayflower’s latitude and longitude to other boats.

While AI does not control every aspect of the Mayflower, it does play a significant role in the ship’s operations.

Onboard experiments

Inside the boat, instead of there being crew, living quarters, a bathroom, a galley, beds and so on, there are science experiments.

Various organizations have pitched experiments that they’d like the Mayflower to carry out while at sea.

One of them is a water analysis experiment that samples the seawater every few hours and stores it in roughly 100 bottles that are capped and kept in a crate onboard ready for human inspection back on land. “Because we’ll know exactly where in the ocean we took the sample, we can say at this point, the salinity was this, the algal bloom quantity was this, the pH was this, and the oxygen levels were this,” said Stanford-Clark.

The Mayflower ship's main hull being transported to a wharf in Plymouth for final assembly.
The ship’s main hull being transported to a wharf in Plymouth for final assembly.
IBM

Scientists at the U.K.’s Plymouth University will analyze the same samples to determine microplastic levels at various points in the ocean.

IBM claims it has also developed a system that can identify whales and the pod they’re from based on their song, which is picked up by an onboard hydrophone. “We’re training an AI to listen for whale songs,” said Stanford-Clark. The same hydrophone is used to listen out for faults on the Mayflower.

There’s another project that will involve analyzing the shape of the Earth. “We’re going to use very accurate GPS to measure exactly the level of the ocean, and then subtract the tides and the weather and the wind and use that to get a unified model,” said Stanford-Clark.

Journey time

The original 30-meter Mayflower took 66 days to carry pilgrims from the U.K. to what is now the U.S. But the new one will take two to three weeks, depending on weather.

Director of the Mayflower project, Brett Phaneuf, told CNBC that the new Mayflower is packed full of technology the original pilgrims wouldn’t have been able to comprehend. But it’s important not to get carried away. “It’s not a Terminator,” he said. “It’s not going to take over the world and it’s not going to chase all our ships off the ocean. It’s a democratizing technology that will help us collect vast amounts of unfamiliar data about the ocean.”

“The interesting thing about Mayflower is there’s nobody to get tired or bored or lonely or injured,” said Phaneuf, pointing out that the vessel can go as fast or as slow as it likes for as long as it wants. “If something is interesting, or new, it can be diverted for next to no money.”

There’s every chance that the ship will encounter problems on the transatlantic trip but Phaneuf believes it’s robust enough to make it. He said it will take something idiotic and mundane to stop it, such as the rudder getting jammed by a log.

Covid-19 disruptions on manned research vessels

The new Mayflower could signify a change in the way ocean research is carried out in the future.

Coronavirus disruptions on manned research vessels are leading to a reduction in data about the weather and climate change, according to UNESCO’s Intergovernmental Oceanographic Commission.

Reduced air travel means there’s a dearth of weather data from the skies as well.

All these disruptions could result in less accurate weather forecasts and climate models, the Commission has said.

The future of autonomous shipping

In many ways, IBM is testing the water for the future of autonomous shipping with the Mayflower.

Allied Market Research thinks the autonomous shipping market could be a $135 billion industry by 2030 and IBM is weighing up where and how its technology can be used.

Stanford-Clark believes that AI captains could be used to “look over the shoulder” of a human captain.

“That same technology that we’re putting in Mayflower will also be able to operate in a guardian angel sort of mode,” he said, adding that there’s a huge amount of interest in this technology from big shipping companies.

He believes there’s a “big opportunity” for container ships to become autonomous in the future, adding that it would help to keep supply chains open during pandemics.

Autonomous cars get all the attention but autonomous shipping is potentially even more useful.

“Everyone wants to see what we’re doing with Mayflower first but people are lining up to have these kind of conversations,” said Stanford-Clark.

Source: cnbc


The British Ports Association (BPA) has opened a call for evidence from the wider maritime community on what ports should consider to prepare for receiving autonomous ships in the future.

This is part of its new initiative looking at the implications of autonomous shipping for UK ports. The call for evidence will feed into the BPA’s own MASS analysis as well as its discussion with industry partners through bodies such as the industry umbrella group Maritime UK. As part of the initiative, the BPA is also creating a new Autonomous Shipping in Ports Network.

Richard Ballantyne, chief executive of the BPA, said: “The prospect of seeing autonomous ships in UK ports is definitely on the horizon but there will be much to do to prepare ourselves. This includes the consideration for port and marine operations, regulatory frameworks, infrastructure and receptions facilities, land to vessel communications and vessel safety.

“Although we are at the early stages, a lot of work is taking place across the maritime community. Many UK ports are now starting to ask what they should be considering as they develop their ports and recruit the next generation.

“This will be an ongoing initiative for the BPA but initially we are inviting evidence from a cross section of maritime sector organisations. This will be in relation to issues that they see specific in to ports and harbours moving forward into autonomous maritime operations. It will also help us to support and participate in various government initiatives in the UK such as Maritime 2050, the work of the Maritime Skills Commission and other innovation, sustainability and infrastructure projects.”

The BPA’s new Network will be open to all its port members, but it will also be drawing on external expertise from specialists working in the marine and MASS sectors.

The BPA will accept submissions to the call for evidence until 12 October.

Source: portstrategy


In the wake of the COVID-19 pandemic, autonomous shipping could reduce contact in freightage, minimising the likelihood of contagion. Autonomous ships can also reduce human error, decrease crewing costs, increase the safety of aquatic life, and increase fuel efficiency. According to the International Chamber of Shipping (ICS), maritime vessels constitute 90% of all international trade, therefore autonomous innovation in shipping could revolutionise the sustainability and efficiency of the trade sector.

Globally, there are approximately 3,000 marine collisions each year, costing companies upwards of $20bn. Studies show that three quarters of collisions are due to human error – which current collision avoidance methods are not compensating for. With the introduction of autonomous shipping technologies, collisions will be dramatically reduced and potentially eliminated entirely.

Avoiding collisions with AI and machine learning

Machine learning avoidance systems can collect data based on position, speed, and route to suitably assess the risk of collision. Tel Aviv-based Orca AI is developing a collision avoidance system that is currently being piloted by several shipping companies. The technology combines Artificial Intelligence (AI) and data collection to create an awareness system that predicts hazards, alerting operators of impending collisions.

Another collision avoidance tool is being developed by Fujitsu Laboratories. In collaboration with the Japanese Coast Guard, Fujitsu are testing AI-based technologies to calculate the risk of collision and near-misses from traffic control rooms. “Using risk values calculated by Fujitsu’s technologies, operators can proactively detect vessels at risk and prioritise them. This will help in preventive planning while offering accurate information to vessels,” says Hiraku Fujimoto, manager of systems division IV, social systems unit at Fujitsu Limited.

Reducing fuel consumption with autonomy

Another method of using AI and machine learning techniques allows innovators to predict sea conditions, allowing ship captains to alter their fuel consumption. Scientists from Shell and the University of Southampton have trialled a new digital dashboard that predicts sea conditions whilst also interpreting the depth and angles of a ship to optimise the amount of fuel needed in any situation.

Whilst studying for her PhD, Amy Parkes from the University of Southampton developed this new modelling technique. She said: “Shell collects an enormous amount of data from these vessels and this app is designed to monitor and adapt to these variables to save power without changing the ship’s overall speed.”

Source: innovationnewsnetwork


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