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Fishermen Turn to Apps and AI to Tackle Climate Change

From weather predicting apps to using artificial intelligence to monitor the fish they catch, small-scale fishermen and coastal communities are increasingly turning to digital tools to help them be more sustainable and tackle climate change.

Overfishing and illegal fishing by commercial vessels inflict significant damage on fisheries and the environment, and take food and jobs from millions of people in coastal communities who rely on fishing, environmental groups say.

In addition, climate change affects on small-scale fishermen—who account for about 90% of the world’s capture fishermen and fish workers—include fish moving to new areas in search of cooler waters or if their habitat is destroyed, rising sea levels, and an increase in the number of storms.

Launched in January by nonprofit Environmental Defense Fund (EDF), the Small-Scale Fisheries Resource and Collaboration Hub (SSF Hub) is a multilingual website that aims to bring together fishermen, their communities and advocacy groups to connect, share ideas and find solutions to the problems they face.

“Small-scale fishers are already facing many challenges—from multiple marine uses, declining fish stocks, threats from over-fishing—and climate change is just going to exacerbate those challenges,” said Alexis Rife, director of small-scale fisheries initiatives at EDF.

“That means that their livelihoods are at risk. It means that their food security is at risk … it’s a pretty dire situation,” she told the Thomson Reuters Foundation.

The website has a resource library where fishermen can search for topics of interest, free online courses, a community forum, discussion groups, an events page and a blog section.

Although it requires a smart phone or computer and internet connection to access—which is often patchy in coastal areas—Rife said it had low data requirements and they are looking at ways to enable users to view its information offline.

The website’s resources can be easily shared via WhatsApp, Facebook or Twitter—platforms already widely used by many small-scale fishers to help get the best prices.

EDF also has a pilot project in Indonesia’s Lampung province on Sumatra island that uses an app to record and monitor catch in blue swimming crab fisheries to enable them to be more sustainable.

A separate pilot in Indonesia uses cameras with artificial intelligence (AI) and algorithms to monitor how many vessels are going out to sea and estimate their catch.

“Fishing is the backbone of coastal and inland fisheries communities around the globe, providing food and nutrition, supporting fishing-related jobs … (and) helping alleviate poverty,” said Simon Cripps, executive director for marine conservation at green group the Wildlife Conservation Society.

Find a balance
Since 2007, Taiwan has mandated that all small-scale fishermen use global positioning system (GPS) devices—that give a vessel’s location every three minutes—with the data collected and analyzed along with reports on fish catches, gear used, and auctions.

The data and monitoring gives insight into assessing fishery conditions, fisheries livelihoods and food security, and helps shape government policy.

The system was also used in 2016 to estimate loss of earnings and allocate reparations to fishermen after an oil spill.

“This year, the device has been rather helpful in assessing fishery conditions and for offshore wind power farms—trying to find a balance between the environmental protection, fishing ground, and power industries,” said William Hsu, associate professor at the National Taiwan Ocean University, which helped with the project.

To alleviate privacy concerns, the government gave assurances that the data would be kept private unless ordered by a court and instigated fuel subsidies as an incentive for users.

In South Africa, the Abalobi app for small fisheries was launched about five years ago and enables users to log catches, record fish sales, capture daily expenses, find buyers and see the latest fishing regulations and notices.

Simon Funge-Smith, senior fishery officer at the United Nations’ Food and Agriculture Organization (FAO) in the Asia-Pacific, said while many technologies can be useful for advocacy groups, fishers’ groups and researchers, their benefits to small-scale fishers are limited.

Language, limited coverage of phone networks, and data requirements, can hold back many technologies, he said.

Apps that track locations and fish catches using less time-consuming and simple entries, or help users comply with rules and laws, are more likely to succeed in empowering small-scale fishermen, he said.

Mobile phones and online banking apps have “transformed” fishing and “lubricated the entire trading arrangement of what is a very perishable product”, Funge-Smith said.

The threat of data collected by digital tools being misused—like for taxation—is not huge, he said, adding that this would discourage its use or cause its misuse.

Ohi Masuda has been a geoduck and scallops fisherman for more than a decade near Baja California, Mexico, maintaining a family tradition that began when his ancestors came to Mexico from Japan in the 1950s.

Masuda has to cope with rising sea temperatures impacting the types of fish he can catch, and the need of cool water for the processing of fish before being shipped to Asia.

“It could help us to innovate,” he said about the SSF Hub, while conceding that limited internet connection could hinder access for some fishermen.

“In Mexico, we often believe that we need to concentrate our efforts only on catching enough fish to sustain a fishery without investing in post-harvest processes, transportation, added value, management, or distribution.”

(Reporting by Michael Taylor; Editing by Belinda Goldsmith; Credit: Thomson Reuters Foundation)

Source: MARINE TECHNOLOGY NEWS, 2021/3/2

11 innovations protecting life below water – and above it

Arc Marine’s innovative Reef Cubes can help boost large-scale coral restoration projects and provide eco-friendly marine habitats while also protecting man-made assets.

Atlantic Sea Farms is creating products made from sustainably farmed sea greens, while also expanding opportunities for fishing communities and helping them to mitigate the effects of ocean acidification.

Cascadia Seaweed provides healthy plant-based nutritional food, climate action and ocean regeneration, and economic resiliency for Indigenous communities through seaweed cultivation in British Columbia.

CHARMthe innovative coral farming robot, combines scientific research with computer automation to reduce costs, save time, and grow resilient coral colonies at economies of scale.

Kelp Blue is a restorative large-scale offshore kelp cultivation enterprise that produces sustainable agri-foods and bio-stimulants which displace environmentally damaging alternatives.

Mussel Farm Mechanization in Brazil aims to increase productivity and competitiveness of small-scale mussel farms in Santa Catarina, through the adoption of mechanized farming systems and the integration between farmers and processing companies.

Plant a Million Corals and their adaptable, low-cost coral restoration units, can be deployed to not only increase coral growth but also to empower communities to take an active role in conservation.

Sea6 Energy modernizes tropical seaweed farming to produce large quantities of inexpensive biomass from which a whole range of products are derived.

Australian Seaweed Institute is developing seaweed biofilter technology to protect the Great Barrier Reef through a network of seaweed biofilters that can be harvested for use in products such as animal feed and biofertiliser.

SharkSafe Barriers help promote a friendly coexistence between sharks and humans by installing vertical bio fences that mimic kelp forests and use magnetism to deter shark species.

WIPSEA specializes in digital environmental surveys and deep-learning techniques to map large marine mammals and human activities at sea.

Source: WORLD ECONOMIC FORUM, 2021/1/22

How Smart Fishing Nets and Scanners Could Help Keep Marine Life Alive in the Ocean

Commercial fishing is draining our oceans of life. Trawlers are catching fish faster than stocks can replenish, while dolphins and turtles are also snared in their huge nets.

More than a third of global fish stocks were classified as overfished in 2017, and while the problem is most acute in developing countries, the European Union is hoping that investing in technology can help fix a problem in its waters.

It is funding a project called SmartFish H2020, led by Norwegian company SINTEF Ocean, which partners with fishing companies, tech suppliers and universities to design equipment to reduce the industry’s impact on marine life.

Among the innovations it is testing is a new kind of trawling net called SmartGear. It emits sounds and uses LED lights of different colors and intensities to attract only target species to the net, encouraging other fish to swim away.

“We want to make life easier for the fishers,” Rachel Tiller, senior research scientist at SINTEF Ocean, tells CNN Business. “The problem is that we don’t have data. We don’t know how much fish is in the ocean and we need to find this information.”

SINTEF is trying to plug that gap by using lasers to scan the fish being pulled aboard a vessel. Another technology being trialed is CatchScanner. It produces a 3D color image of the fish, which is analyzed using AI to estimate the weight and identifying the species.

CatchScanner could also help tackle rule-breaking; some fishing vessels catch more fish than EU quotas allow, as well as fish of the wrong size and species. CatchScanner could prevent this by automatically collecting catch information in a database and making it available to authorities such as national coastguard agencies.

In Europe, the fishing industry employs around 75,000 people. With demand for seafood increasing and growing pressure on sea life, the 2014-2020 European Maritime and Fisheries Fund set aside €6.4 billion ($7.6 billion) for projects like SmartFish, to modernize fisheries, monitor quotas, collect data around commercial species, and create sustainable jobs.

Our idea is to fully digitalize along the supply chain,” says Vivian Loonela, the European Commission spokesperson for Maritime Affairs and Fisheries. She says developments like SmartFish could help. “We need smart technologies and we are tapping into the potential of AI and machine learning.”

The European Union cannot oblige member states to adopt the SmartFish innovations, and their success will depend on market demand. However, Tiller says that many fishing companies across Europe have shown interest. “Some of these technologies can be very expensive to put onboard fishing vessels,” she says. “So in order for the fishers to want to have them onboard, they need to see the benefit.”

Fisherman Aitor Larrañaga will soon test the SmartGear trawl net off the coast of Spain, with his company Larrasmendi Bi.

He’s enthusiastic about smart tech and believes the fishing industry needs to innovate to become more sustainable. “The world moves on,” he says. “We can’t work like we did 200 years ago.”

Source: news18.com, 2021/1/31

World’s largest 3D printer to cut wind turbine blade costs by half

Researchers believe a 3D printing solution could reduce lead times by at least six months and  development costs by 25-50% for wind turbine blades.

The University of Maine has been awarded a $2.8 million government grant to develop a 3D printing solution to create large, recyclable, segmented wind blade moulds.

In 2019, the university commissioned the largest polymer 3D printer in the world to compliment its wind blade testing facility – the second largest in the US.

Currently, moulds and tooling for large blades can cost more than $10 million while the moulds’ time to market of 16–20 months can stifle innovation, say researchers.

Currently, carbon fibre reinforced ABS(Acrylonitrile butadiene styren) thermoplastic feedstocks (widely used in large scale 3D printing) cost more than $11/kg The university intends to incorporate bio-based materials derived from wood, to reduce the cost of the feedstock to less than $4.4/kg.

The executive director of the university’s advanced structures and composites centre, Habib Dagher, said that the project could help drive sustainability.

She said that by combining “cutting-edge 3D printing manufacturing with bio-based feedstocks… [m]oulds produced using these materials can be ground up and reused in other moulds, making them a more sustainable solution.”

According to the university, such bio-based materials promise mechanical properties similar to aluminum at lower fabricated costs.

In addition to the $2.8 million grant from the US Department of Energy’s Office of Energy Efficiency and Renewable Energy, the university will collaborate with Oak Ridge National Laboratory (ORNL), which recevied a $4 million award to better control mould surface temperatures.

Surface temperature control is a critical component of mould manufacturing and it is hoped that new ORNL technology enables robotic deposition of heating elements, reducing mould fabrication time and cost.

TPI Composites and Siemens Gamesa (SGRE) are partnering with the University of Maine on the project.

They claimed a successful demonstration project will put both SGRE and TPI on track to transition the additive manufacturing solution developed by the university into real-world applications.

Source: Windpower Monthly, 2021/1/29

Siemens Gamesa books Reygar vessel monitoring boost

Reygar has been commissioned by Siemens Gamesa to develop a motion comfort monitoring tool capability within its BareFleet remote monitoring and reporting platform for vessels supporting multi-day work at the manufacturer’s projects.

The new system will track and analyse motion, fuel consumption and crew sickness in different cabin locations, with a specific focus on boosting safety and fitness to work aboard vessels.

Reygar said the system that Siemens Gamesa has commissioned automatically monitors the health and performance of critical equipment across each vessel, inclusive of engine health, CO2 emissions, fuel consumption, motion, and impact onto the turbine.

The tool also allows the crew to manually input supplementary data and observations into a customer-specific digital reporting platform, with the resulting DPR form customised to bring Siemens Gamesa’s own performance indicators and priority data fields – such as crew comfort – to the fore.

Reygar managing director Chris Huxley-Reynard said: “As wind projects move further offshore into areas of higher wind resource, it is paramount that charterers and vessel operators are equipped with the true understanding of vessel motions and personnel comfort they need to keep these projects – and the people constructing and maintaining them – performing at their best.

“Motion data measured across different cabin locations and different vessels, sourced via BareFleet while in transit and while idling, will advise Siemens Gamesa’s chartered vessel operators on how to guarantee the crew and technicians are housed and transported in such a way that they can continue do their jobs effectively across multi-day projects.”

Siemens Gamesa head of offshore service logistics Rene Wigmans said: “With the global energy transition well underway, we are increasingly focused on how digitalisation can power the efficient and safe roll-out of our technology across projects in exciting, rapidly growing markets such as the US and Taiwan.

“Our work with Reygar to further integrate BareFleet’s detailed motion reporting into our offshore activity will support our team in maximising operational efficiency and reducing vessel CO2 emissions whilst securing the health and comfort of our crew as they work on these flagship – yet often remote – sites.”

Source: renews.biz, 2020/12/14

Taiwan cuts offshore wind tariffs

Taiwan has reduced its feed-in tariff (FiT) for offshore wind projects signing 20-year power purchase agreements (PPAs) in 2021 by 8.5%, compared with 2020 rates.

The FiT cuts, confirmed by the Ministry of Economic Affairs today, are in line with those proposed by the ministry in December.

The main rate for projects signing 20-year PPAs from 1 January in 2021 is NT$4656.8 (€135.6) per megawatt-hour (MWh), down from NT$5094.6/MWh in 2020.

Projects also have a “ladder” option of NT$5306.4/MWh for the first 10 years and NT$3520.6/MWh for the second 10 years, down from NT$5801.5/MWh and NT$3822.7/MWh in 2020.

The government lowered 2020 rates by around 8% compared with 2019.

Source: renews.biz, 2021/1/7

Asian offshore wind market to match Europe within five years

Asian offshore wind capacity will grow sixfold to 52GW by 2025, according to new reasearch. China will continue to dominate, but foreign developers will drive major growth in Taiwan and Vietnam.

According to analysis compiled by Norwegian consultancy Rystad Energy, Asia has grown from practically zero offshore capacity in 2015 to more than 6GW today.

Fuelled by China’s growth, by 2025, the region’s installed capacity is expected to grow sixfold to 52GW — almost on a par with what Europe is expected to reached by then (see chart). At present,  China accounts for more than 94% of Asia’s current operational offshore wind capacity — 5.9GW of the 6.3GW total.

The remaining 6% of current operational offshore wind is found in Taiwan (128MW), Vietnam (105MW), South Korea (99MW) and Japan (56MW).

Chinese boom to beat tariff changes

The Chinese government is phasing out its offhore feed-in-tariff after 2021, which Rystad Energy believes will create a rush of large projects moving through the construction pipeline. For those that miss this deadline, the consultancy anticipates many developments will have already reached a critical point in the construction process and so will accept a slightly reduced feed-in-tariff. 

Under this scenario, Rystad Energy expects offshore wind development in China to continue rising substantially before slowing down in 2025. However, China will still lead the sector’s growth across Asia Pacific, although its share of installed capacity is forecast to decline from 94% to about 70%.

“Asia will provide substantial opportunities for international suppliers, but further down the road it could also signal stiffer global competition as local Asian players become seasoned in this new industry and start expanding beyond their home markets,” said Alexander Fløtre, Rystad Energy’s product manager for offshore wind.

In China, only Siemens Gamesa has managed to enter the market, if indirectly through a licensing agreement with Shanghai Electric, while Chinese turbine manufacturers such as MingYang and Goldwind dominate installations. 

Emerging markets

However, Taiwan and Vietnam are predicted to put forward “substantial volumes” of offshore capacity in the short to medium-term. According to the analysis, Taiwan’s offshore capacity is expected to ramp up significantly due to opportunities for non-Asian developers and suppliers. 

And by 2025, Vietnam is expected to reach around 6.1GW of capacity with the lion’s share (75%) coming from intertidal projects — wind farms that are offshore by definition but are located very close to shore and in shallow waters.

Source: WIND POWER, 2020/12/11