Japan’s Wind Energy: A Landscape in Transition
Japan, a country known for its technological prowess, is facing a challenge in its energy sector.
While it boasts a respectable share of renewable energy production, wind power lags behind compared to other developed nations.
There’s a growing focus on wind energy as a key player in Japan’s renewable energy future. The government has set ambitious targets to significantly increase wind power capacity, particularly through offshore installations. This highlights the shift towards a more wind-powered future.
This transition isn’t without its hurdles. Public perception and the mountainous terrain of much of Japan pose challenges for onshore wind farm development. This paragraph introduces some of the obstacles Japan faces in expanding wind energy.
Japan’s wind energy landscape is poised for significant change. By exploring the current state, future goals, and existing challenges, we can gain a comprehensive understanding of this evolving energy source in the Land of the Rising Sun. This concludes the introduction with a forward-looking statement, piquing the reader’s interest in learning more.
A Historical Breeze: Wind Power in Japan
Japan’s relationship with wind energy is a tale of two eras. Traditionally, windmills played a crucial role in rural Japan for centuries.
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Early Reliance: Thousands of windmills operated in regions like Nagano and Hokkaido, primarily used for agricultural purposes like irrigation and drainage, until the mid-20th century. These traditional windmills, often called “Yamada turbines,” were a testament to Japan’s early adoption of wind power.
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Post-War Lull: Following World War II, Japan’s focus shifted towards rebuilding and rapid economic growth. Fossil fuels became the dominant energy source, pushing wind power to the sidelines.
The narrative picks up again in the latter half of the 20th century:
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Modern Revival: The 1970s oil crisis spurred a renewed interest in renewable energy sources. Pilot projects for wind-powered electricity generation began to emerge, with the first trial conducted on Ibuki mountain in the 1920s finally seeing wider exploration.
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Slow and Steady Growth: Despite this renewed interest, the development of wind energy in Japan remained relatively slow compared to other developed nations. Factors like a lack of strong policy support and challenges in securing land for large-scale projects contributed to this slower pace.
This historical overview provides context for understanding the current state of wind energy in Japan. It highlights the long history of wind utilization, the post-war shift, and the recent revival of interest in this clean energy source.
Statistic Data of Japan’s Wind Energy Landscape
Japan’s Wind Power by the Numbers
Japan’s wind energy sector is on the rise, but there’s still room for significant growth. Here’s a look at some key statistics that paint a picture of the current landscape:
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Installed Capacity: Japan’s total installed wind power capacity is around 4.2 gigawatts (GW). This represents a small fraction of the country’s overall energy generation.
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Energy Generation: Wind power contributes roughly 3% to Japan’s electricity generation. Though modest, this percentage is steadily increasing.
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Onshore vs. Offshore: The vast majority (around 90%) of Japan’s wind power comes from onshore wind farms, primarily located in regions with stronger winds. Offshore wind development is still in its early stages but holds significant potential.
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Government Targets: Japan has ambitious plans to increase wind power capacity by eightfold in just a few years.
These statistics offer a snapshot of Japan’s wind energy landscape, highlighting the current capacity, its contribution to the energy mix, and the focus on future growth, particularly through offshore development.
Japan’s wind energy sector is on the rise, but there’s still room for significant growth. Here’s a look at some key statistics that paint a picture of the current landscape:
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Installed Capacity: Japan’s total installed wind power capacity is around 4.2 gigawatts (GW). This represents a small fraction of the country’s overall energy generation.
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Energy Generation: Wind power contributes roughly 3% to Japan’s electricity generation. Though modest, this percentage is steadily increasing.
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Onshore vs. Offshore: The vast majority (around 90%) of Japan’s wind power comes from onshore wind farms, primarily located in regions with stronger winds. Offshore wind development is still in its early stages but holds significant potential.
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Government Targets: Japan has ambitious plans to increase wind power capacity by eightfold in just a few years.
These statistics offer a snapshot of Japan’s wind energy landscape, highlighting the current capacity, its contribution to the energy mix, and the focus on future growth, particularly through offshore development.
Japan’s Wind Power Table by the Numbers
| Statistic | Data |
|---|---|
| Installed Capacity | 4.2 Gigawatts (GW) |
| Contribution to Electricity Generation | 3% |
| Onshore vs. Offshore | 90% Onshore, 10% Offshore (approx.) |
| Government Target (by 2030) | 8x Increase in Capacity |
Japan’s Wind Energy Landscape: Policy and Regulation
Japan’s wind energy sector is undergoing a significant policy shift, aiming to propel it towards a more prominent role in the country’s energy mix. Let’s delve into the key policy instruments and regulatory frameworks shaping this transformation.
Policy Support:
- Feed-in Tariff (FIT): Introduced in 2012, the FIT program provided a guaranteed price for electricity generated from renewable sources, including wind. This initial policy played a crucial role in kickstarting wind energy development. However, in 2022, it was partially replaced by the…
- Feed-in Premium (FIP): This new system introduces competitive auctions for renewable energy projects, including wind. The FIP aims to drive down costs and promote efficient development.
Regulatory Framework:
- Marine Renewable Energy Act (2018): This act streamlines the allocation of offshore wind farm development areas. It establishes an auction process, facilitating investment and project development in this promising sector.
- Streamlining Permitting: The government is actively working to reduce bureaucratic hurdles and shorten the permitting process for wind farm projects, both onshore and offshore. This aims to expedite project development and reduce overall costs.
Challenges and Considerations:
- Public Perception: Securing social acceptance for wind farms, particularly onshore projects, remains a hurdle. Community concerns regarding aesthetics, noise, and potential environmental impact need to be addressed effectively.
- Grid Integration: Integrating large-scale wind energy into the existing grid infrastructure poses challenges. Upgrading and expanding the grid is crucial to accommodate the fluctuating nature of wind power.
Future Outlook:
Japan’s policy and regulatory landscape for wind energy is evolving to address past limitations and unlock its full potential. While challenges remain, the government’s commitment to ambitious targets and a focus on streamlining processes point towards a brighter future for wind power in Japan.
Japan’s Wind Energy Landscape: Wind Farm Projects
Here’s a list of 7 Wind Farms in Japan:
- Akita and Noshiro Offshore Wind Power Project (Akita): Operational since December 2022, this project boasts 33 turbines generating 140 MW of electricity.
- Aoyama Plateau Wind Farm (Muroo-Akame-Aoyama Quasi-National Park): Currently the largest wind farm in Japan with a capacity of 95 MW.
- Ishikari Bay Wind Farm (Hokkaido): This 2023 operational wind farm has 14 turbines with a total capacity of 112 MW and a 180 MWh battery storage system.
- Fukushima Floating Wind Turbine (Fukushima): A single-turbine pilot project commissioned in 2013, located 20 kilometers offshore with a capacity of 2 MW.
- Tohoku Wind Farm (Tottori): Developed by JWD, this wind farm has 13 turbines with a total capacity of 19,500 kW.
- Hizen Minami Wind Farm (Saga): Another JWD project consisting of several turbines with a total capacity of 18,000 kW.
- Setana Wind Farm (Hokkaido): A small-scale wind farm with 2 turbines and a total capacity of 1.2 MW, showcasing a close-to-shore wind farm concept.
Japan’s Wind Energy Infrastructure: A Mixed Bag
Japan is aiming to significantly boost its wind energy production, but its infrastructure for this renewable source is currently in development. Here’s a breakdown:
Onshore Wind:
- More established than offshore, but still faces challenges:
- Limited suitable land – Mountainous terrain restricts options.
- Public opposition – Concerns about noise and visual impact can stall projects.
Offshore Wind:
- Seen as having huge potential due to strong, consistent winds:
- Major infrastructure investments needed:
- Building ports suitable for constructing and maintaining massive turbines.
- Strengthening the power grid, especially for transmitting power from Hokkaido (windier) to major consumption areas.
- Regulatory hurdles are being addressed to streamline permitting processes.
- Major infrastructure investments needed:
Government Initiatives:
- Recognizing the need for better infrastructure, the government is taking steps:
- Funding for grid upgrades and port development.
- Simplifying regulations for offshore wind projects.
- Japan’s wind energy infrastructure is undergoing a significant transformation.
- While there are challenges, the potential of offshore wind and government support suggest a promising future.
Here are some additional points to consider:
- Japan is looking to other countries like Denmark for inspiration in building a strong wind energy sector.
- Technological advancements in floating wind turbines could unlock even more potential, especially in deeper waters.
Japan’s Wind Energy: Embracing Technological Advancements
Japan is actively adopting and developing wind turbine technologies to enhance its wind energy production. Here’s a glimpse into the technological landscape:
Dominant Technology:
- Large horizontal-axis wind turbines (HAWTs): These are the workhorses of Japan’s wind farms, with ever-growing capacities and blade lengths to capture more wind.
Emerging Technologies:
- Variable-speed turbines: These adjust rotor speed based on wind variations, producing more consistent power and reducing noise pollution.
- High-capacity turbines: Newer models boast capacities exceeding 5 megawatts (MW), significantly boosting energy generation per turbine.
- Floating wind turbines: With strong offshore winds, Japan is exploring floating turbines for deep-sea deployment, unlocking vast potential.
- Wind lens technology: This experimental tech involves a large hoop structure that intensifies wind, potentially tripling power output from turbines placed within it.
Focus on Efficiency and Sustainability:
- Lightweight materials: Turbine components are being made lighter for better efficiency and reduced environmental impact during production and transportation.
- Improved grid integration: Advanced systems manage the variable nature of wind energy, ensuring smooth integration with the national grid.
Collaboration and Innovation:
- Japan is actively involved in international research and development efforts to refine wind turbine technology.
- Domestic companies are working on advancements, aiming to become major players in the global wind energy market.
Challenges and Opportunities:
- High initial costs: Advanced wind technology can be expensive, but long-term operational savings and falling costs make it attractive.
- Localization of technology: Japan strives to become more self-sufficient in manufacturing wind turbine components.
Japan’s wind energy sector is embracing technological advancements to become a more significant source of clean energy. It’s a story of continuous improvement, with research and development efforts paving the way for a more efficient and sustainable future.
Japan’s Wind Energy: Fueled by Private Sector Innovation
The private sector plays a crucial role in driving Japan’s wind energy sector forward. Here’s how:
Investment and Development:
- Leading the Charge: Private companies are the primary developers and investors in wind farm projects, both onshore and offshore.
- Financial Backing: They provide essential funding for project development, construction, and turbine installation.
- Expertise and Innovation: Private companies bring their expertise in technology, engineering, and project management to the table. They’re also at the forefront of developing new wind turbine technologies, as mentioned previously.
Operations and Maintenance:
- Long-Term Commitment: Private companies often operate and maintain wind farms, ensuring optimal performance and maximizing energy production.
Challenges and Collaboration:
- Risk Management: Private companies manage the financial risks associated with wind farm development, such as permitting delays and grid connection issues.
- Collaboration is Key: Success hinges on strong collaboration between private companies, the government, and local communities. Open communication helps address public concerns and streamline permitting processes.
Examples of Private Sector Involvement:
- Major Japanese corporations like Mitsubishi Heavy Industries and Sumitomo Corporation are actively involved in wind turbine manufacturing and project development.
- Several independent power producers (IPPs) invest and operate wind farms across Japan.
The Future of Private Sector Participation:
- As Japan expands its offshore wind potential, private companies are expected to play an even greater role in project development, financing, and construction.
- Continued innovation in technology and efficient operation models will be crucial for the private sector to stay competitive.
The private sector is the engine driving Japan’s wind energy growth. Their investments, expertise, and risk-taking spirit are essential for achieving ambitious renewable energy targets.
Japan’s Wind Energy Landscape: Key Player Company
Japan’s wind energy sector is driven by a public-private partnership. While the government sets ambitious goals and provides regulatory frameworks, private companies are the backbone of development, financing, and innovation. Here, we’ll delve into one of the key players in this space:
JERA Co., Inc.
JERA is the largest electric power company in Japan, formed in 2015 through the merger of Tokyo Electric Power Company’s (TEPCO) and Chubu Electric Power Company’s thermal power generation businesses. JERA is a major player not only in traditional fossil fuel power generation but also increasingly in renewable energy, including wind power.
JERA’s involvement in Wind Energy:
- Investment in Wind Farms: JERA has invested in both onshore and offshore wind projects across Japan.
- Focus on Offshore Wind: Recognizing the vast potential of offshore wind, JERA is actively involved in developing large-scale offshore wind farms, including:
- Akita Noshiro Offshore Wind Farm – a 130 MW project in the Sea of Japan, operational since 2022.
- Chitose Offshore Wind Farm – a planned 1.4 GW project off the coast of Hokkaido, expected to be operational by 2028.
- Technological Advancements: JERA collaborates with research institutions and private companies to explore and implement advanced wind turbine technologies for higher efficiency and lower costs.
JERA’s Contribution to Japan’s Wind Energy Landscape:
JERA’s significant financial resources and expertise in power generation make them a crucial player in driving Japan’s wind energy ambitions. Their focus on offshore wind development and technological advancements paves the way for a more sustainable and secure energy future for Japan.
Other Key Players:
It’s important to note that JERA is just one of many companies contributing to Japan’s wind energy sector. Other key players include:
- Mitsubishi Heavy Industries (MHI): A leading manufacturer of wind turbines and a major player in wind farm development.
- Sumitomo Corporation: A diversified trading and investment company involved in wind farm project development and financing.
- Marubeni Corporation: A trading and investment company with a growing portfolio of wind power projects.
- Ørsted: A leading Danish wind energy company with a presence in the Japanese offshore wind market.
These companies, along with many others, are working together to make wind energy a significant contributor to Japan’s energy mix.
Japan’s Wind Energy: Balancing Progress with Environmental Protection
Wind energy is a clean and renewable source of power, but its development isn’t without environmental considerations. Here’s a look at the potential environmental impacts of wind energy in Japan:
Positive Impacts:
- Reduced Greenhouse Gas Emissions: Wind power displaces fossil fuel generation, leading to significant reductions in greenhouse gas emissions and air pollution.
- Conservation of Fossil Fuels: Wind energy helps conserve dwindling reserves of fossil fuels like coal and natural gas.
Negative Impacts:
- Habitat Loss and Bird Strikes: Wind turbines can disrupt bird migration patterns and pose a collision risk for some species, particularly birds of prey. Careful siting and mitigation strategies are crucial.
- Impact on Bats: Similar to birds, wind turbines can injure or kill bats depending on location and operation.
- Impact on Marine Life (Offshore): Construction and operation of offshore wind farms can disrupt underwater noise levels and potentially impact marine mammals.
- Habitat Fragmentation (Onshore): Construction of wind farms and access roads can fragment natural habitats, impacting wildlife movement and ecological connectivity.
- Visual and Noise Pollution: Large wind turbines can alter landscapes and generate noise, potentially impacting nearby communities and tourism.
Mitigation Strategies:
- Environmental Impact Assessments (EIAs): Thorough EIAs are crucial for identifying potential impacts and implementing mitigation measures before project development.
- Strategic Siting: Locating wind farms away from sensitive ecological areas and migration corridors is essential.
- Turbine Technology: Using newer, quieter turbine models and optimizing operational schedules can minimize noise pollution.
- Habitat Restoration: Restoring disturbed habitats and creating wildlife corridors can help offset some negative impacts.
- Community Engagement: Open communication and involvement of local communities throughout the development process are vital for addressing concerns and finding solutions.
Moving Forward:
- Japan is working on refining its regulatory framework to balance wind energy development with environmental protection.
- Technological advancements in turbine design and operation can further reduce environmental impacts.
- Promoting public understanding of the benefits and responsible development of wind energy is crucial for wider acceptance.
Wind energy offers a significant opportunity for Japan to achieve its clean energy goals. By carefully considering and mitigating the potential environmental impacts, Japan can harness the power of wind while protecting its valuable ecosystems.
Japan’s Wind Energy: Reaping the Benefits of a Clean Power Source
Japan’s wind energy sector holds immense potential to deliver a multitude of benefits and advantages.
Here’s a breakdown of the key advantages wind energy offers:
Environmental Benefits:
- Combating Climate Change: Wind power displaces fossil fuel dependence, resulting in significant reductions in greenhouse gas emissions and air pollution. This is crucial for tackling climate change and ensuring a cleaner future.
- Energy Security and Independence: Wind is a domestic and renewable resource, reducing reliance on imported fossil fuels and enhancing Japan’s energy security.
Economic Benefits:
- Job Creation: The wind energy sector creates jobs in manufacturing, construction, operation, and maintenance of wind farms. This stimulates local economies and fosters the development of a skilled green workforce.
- Technological Innovation: Japan’s push for wind energy drives innovation in turbine technology, grid integration, and efficient energy management systems. This strengthens its position in the global clean energy market.
Social Benefits:
- Improved Public Health: Reduced air pollution from wind energy leads to improved public health, lowering respiratory illnesses and healthcare costs.
- Sustainable Development: Wind energy development, when done responsibly, can contribute to sustainable development by promoting energy efficiency and environmental consciousness.
Additional Advantages:
- Land Use Efficiency: Wind farms can coexist with other land uses such as agriculture and grazing, maximizing land utilization.
- Predictable Energy Source: Wind patterns are predictable, allowing for better forecasting and grid management compared to some other renewable sources like solar.
Challenges and Considerations:
- Intermittency: Wind is a variable resource, so integrating it with the grid requires advanced management systems and potentially energy storage solutions.
- Public Perception: Visual and noise concerns from wind farms can create opposition in some communities. Open communication and addressing concerns are crucial.
The benefits and advantages of wind energy are substantial for Japan. By strategically addressing the challenges and implementing responsible development practices, Japan can unlock the clean energy potential of wind and move towards a more sustainable future.
Japan’s Wind Energy Landscape: A Story of Potential and Progress
Japan’s wind energy sector is on a promising trajectory. While challenges exist, the potential benefits of wind power are undeniable. Here’s a summary of the key takeaways:
- Significant Potential: Japan has vast wind resources, particularly offshore, offering a clean and sustainable alternative to fossil fuels.
- Infrastructure Development: Investments are underway to upgrade the power grid and develop ports suitable for offshore wind projects.
- Technological Advancements: Japan is embracing advancements in wind turbine technology to improve efficiency and harness stronger offshore winds.
- Private Sector Contribution: Private companies are the driving force behind wind farm development, financing, and innovation.
- Environmental Considerations: Careful planning and mitigation strategies are crucial to minimize environmental impacts on wildlife and habitats.
- Economic and Social Benefits: Wind energy offers job creation, energy security, improved public health, and contributes to sustainable development.
Looking Ahead:
- Japan’s commitment to expanding wind energy paves the way for a cleaner and more secure energy future.
- Collaboration between government, private sector, and local communities is essential for successful and sustainable development.
- Continued innovation and technological advancements will further unlock the potential of wind energy in Japan.
In conclusion, Japan’s wind energy landscape is one of transformation and opportunity.
By harnessing the power of wind responsibly, Japan can achieve its clean energy goals and contribute to a more sustainable future for the planet.
https://www.exaputra.com/2024/03/japans-wind-energy-landscape.html
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Vineyard Wind Battles GE Vernova, UK Funds Blade Innovation
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Vineyard Wind Battles GE Vernova, UK Funds Blade Innovation
Fraunhofer studies uptower carbon blade repairs, Vineyard Wind’s fight with GE Vernova deepens, the UK backs offshore innovation, and a 26-year Horns Rev study tracks how birds adapt to turbines.
Sign up now for Uptime Tech News, our weekly newsletter on all things wind technology. This episode is sponsored by Weather Guard Lightning Tech. Learn more about Weather Guard’s StrikeTape Wind Turbine LPS retrofit. Follow the show on YouTube, Linkedin and visit Weather Guard on the web. And subscribe to Rosemary’s “Engineering with Rosie” YouTube channel here. Have a question we can answer on the show? Email us!
The Uptime Wind Energy Podcast, brought to you by StrikeTape. Protecting thousands of wind turbines from lightning damage worldwide. Visit striketape.com. And now your hosts.
Allen Hall: Welcome to the Uptime Wind Energy podcast. I’m your host, Allen Hall. I’m here with Rosemary Barnes, Yolanda Padron, and Matthew Stead. Fraunhofer has published peer-reviewed feasibility research in wind energy science. And Rosemary, I don’t know if you read wind energy science, but there’s a lot of good information there about wind turbines and mechanical aspects.
Not much on the electrical side, but a lot about mechanical. Uh, in, in, in wind energy science, uh, they had a discussion or an article about repairing damaged pultruded CFRP spar cap planks while the blade stays on the turbine. Using finite element analysis on a 81.6-meter [00:01:00] blade from a seven-megawatt offshore turbine, the researchers found that a shear web window cut out as short as one meter drops buckling resistance from 20.7 times critical load to four times critical load, a reduction of over 80%.
The fix? Temporary external clamping frames with a pre-tensioned span-wise rod to carry gravity loads, combined with internal push rod assemblies and external stringers profiles to restore buckling resistance, all installed and removed uptower. Wow. I know we’ve discussed the carbon pultrusion repair situation and how critical that is or h- how difficult it is.
I didn’t realize it was that difficult, Rosemary, that if you actually try to replace a one-meter section of a carbon pultrusion, you’re re- reducing the, the, what, the, the buckling resistance by 80%? [00:02:00] Holy moly.
Rosemary Barnes: I don’t think that’s even 100% pultrusion specific, right? They’re talking about cutting a, a window in the shear web.
Allen Hall: Yes.
Rosemary Barnes: So that could be for any kind of repair you might have to do that, including if you need to repair, like sometimes you need to repair the, the shear web. Um, and even though, like, they’re not doing a lot of heavy lifting, um, that’s kind of a structural pun, um, they’re still super important. If they’re not there, then you’re gonna have big problems pretty immediately.
The way that it works with repairs is that there’s certain kinds of damage that you know that you can just do uptower. The technicians know they can do it. They don’t need to call an engineer. The engineer doesn’t call- need to call the expert engineer. But when you need to do something a bit unusual, like a whole meter of web removed, then you’re gonna need to get an engineer to, um, dial in the, y- the, to rerun the design codes basically, um, but with this weak structure now to see is this okay and is it okay, you know, uh, [00:03:00] obviously a turbine that is just, um, idle or it’s not even idle, it’s just fixed in place while they’re repairing it, that has different loads on it to one that’s operating.
So, you know, they’ll run that and make sure that it’s safe, um, before they do the repair. So what I really like about Fraunhofer is that they in some ways, like- Maybe it’s not cutting-edge science or engineering because they are largely repeating what is already well known in industry. But the problem is that industry doesn’t tell everybody else.
And so it is, like, such a vital role to then go and illustrate, um, to everybody else what, what’s happening in industry. And they, they are… Like, there is this problem with wind energy where academia and industry are not, um, talking too much, and a lot of the academic stuff just doesn’t relate at all to what’s happening in the industry.
But Fraunhofer do, like, 90, 90% of the time seem to get it at pretty right.
Allen Hall: When a carbon protrusion is [00:04:00] used, that really localizes where the load is versus in, in some of the more fiberglass designs that I’ve seen, the shell is actually taking some of the load. It’s not all in the shear web, so to speak. So doesn’t that sort of focus the loads into one location a little bit more when you move to carbon?
Isn’t that the point?
Rosemary Barnes: Yeah. Well, the carbon fiber is, is a lot, lot, lot stiffer than, um, fiberglass, and it’s, it’s a lot stronger. So yeah, you are designing… I, I mean, always the spar caps have been the main load carriers, the, um, you know, the main laminate, the bit between the shear webs or over the shear webs.
Um, but it’s, yeah, it probably is, um uh, e- exacerbated or the increased effect when you add carbon fiber. But the, the thing about carbon fiber is it’s so susceptible to small damages or small deviations, so like a tiny little bit of fiber waviness, like if your fibers aren’t perfectly straight, then you can easily get a, a crack.
And [00:05:00] carbon fiber can also be a lot less forgiving than fiberglass. It is not uncommon that it will just break, and you didn’t even know there was anything wrong. So that damage intolerance is what led to people moving away from carbon fiber fabric and into pultrusions, because they’re made with perfectly straight fibers.
Um, but it, it raises some, uh, problems of its own because y- yeah, like how do you repair that? You can’t, um, you can’t get the fibers as straight again unless you repair a whole plank, um, because like they look like, like two-by-fours or something. You know, like they look like little fence palings, basically.
Black, black fence palings. Um, and so yeah, you, you’d have to repair, replace a whole one, and then you’ve got like a big chunk of structure that’s missing there, so that’s pretty hard to do uptower. I, I don’t know anybody that does those uptower, actually. Um, m- maybe they can now with this reinforcement method, but I would still not enjoy being in a blade that was missing a, a [00:06:00] pultrusion and up in the air.
Allen Hall: The offshore versus onshore equation, it, it would make more sense onshore to actually drop the blade, I assume. Offshore adds difficulty, but it sounds like with all the rigging a- and assembly that you would have to do offshore, it, it probably is gonna be close in terms of total cost to do an uptower repair versus a downtower repair I would think.
It, it– Wouldn’t you think it’d be roughly right?
Rosemary Barnes: Yeah, like in, in offshore, there’s always more motivation to do complicated, um, expe-expensive uh, things that will save you from having to do something even more expensive, like bringing, um, a whole blade back. Uh, yeah, going out, getting the vessel with the crane, bringing the blade down, and taking it in is just incredibly expensive.
So you can spend a lot of time faffing around reinforcing a blade uptower before you, um, you know, would come out behind. But you know what? While we’re on topic of carbon pultrusions, I think it, like it, um, it’s almost bypassing the, the biggest risk with them ’cause [00:07:00] what I see is the– Like it’s one thing when you know you’ve got damage that you need to repair, but far more common, I think, is that you don’t even know that you’ve got damage.
It’s very hard to, to see what’s going on in there. Um, I mean, people aren’t just going up periodically and doing ultrasounds, ul-ultrasound scans of their entire blade. But even if they were, it’s still not that easy to find all of the, the little damages in, in pultrusions. So, um, yeah, that’s something…
‘Cause it’s not such an old technology. It’s been around for, I, I don’t know, like not even 10 years these have been, being used consistently, probably more like five, um, that there’s been a lot of them out there. And I just, yeah, I, uh, maybe I’m overreacting because all I see is broken blades in my career, but, um, you know, I am a little bit worried that we’re gonna start to see as, you know, fatigue builds up, that we might start to see some more like sudden breakages in these blades.
Allen Hall: If Fraunhofer’s working on it, there must be a reason for the [00:08:00] analysis and all the engineering time that they spent on it, that it’s a concern. I don’t know how you would do it offshore, honestly, because of all the wind loads. That you would have this damaged blade, and yes, you would have all the engineering calculations, but I would just see the safety people being very concerned about it.
Because if it does go free, you have a couple of people up there minimum, and who knows what’s below.
Rosemary Barnes: But even the amount of time in between knowing that you have to, um, replace a pultrusion and actually getting up there to do it, like I’d be surprised that it didn’t break in that, in that time because it is such a big, a big, a big thing.
Um, so yeah. Uh, but super interesting work and I do, I, I do really, really appreciate that the Fraunhofer exists to, you know, do this sort of stuff and, um, give us the information w-we need to get a better understanding.
Allen Hall: Delamination and bondline failures in blades are [00:09:00]difficult problems to detect early. These hidden issues can cost you millions in repairs and lost energy production. CIC NDT are specialists to detect these critical flaws before they become expensive burdens. Their nondestructive test technology penetrates deep into blade materials to find voids and cracks traditional inspections completely miss.
CIC NDT maps every critical defect, delivers actionable reports, and provides support to get your blades back in service. So visit CICNDT.com because catching blade problems early will save you millions
UK government has deployed 15 million pounds, uh, which is about $20 million, uh, through Innovate UK in a coordinated push to move offshore wind technology from prototype stage into commercial supply chains. The package has three components: a 10 million [00:10:00] pound offshore wind innovation program, open competition for high potential businesses, a five million pound wind innovation hub to align industry, government, and research, and a 12 million pound effort for phase one of a large structures innovation center on the Isle of Wight, with Vestas already signed as its first industry partner for sustainable blade development.
So the, the large structure innovation center is a composite center which is gonna be doing some advanced technology work on blade design. And I think there’s no better place to do that at the moment than in the UK. But it does open the door to a number of UK firms, and even outside the UK firms, to get involved in the UK offshore and somewhat on the onshore side.
This has massive potential, I think, within the UK and outside the UK, Matthew.
Matthew Stead: I, I know from my own firsthand experience that, um, uh, actually getting into the wind space is, like, really [00:11:00] hard. So for this sort of, um, incubator and support around, um, you know, setting up businesses, I, I think this is a really, really good thing for the UK government to be doing.
Um, ’cause, yeah, how do, how do you build up a future industry if you, if you don’t have the new businesses coming through? So I, I think it’s a, it’s a, it’s a great thing that the UK government’s doing. And yeah, and how do you get small companies working with the larger OEMs? How do you get the innovation?
Yeah, it’s, yeah, I think that’s probably, you know, got five gold stars for the UK government.
Allen Hall: What are the areas that they should be focused on over the next couple of years? Obviously, blades is, is a massive one. I’m sure Vestas is gonna be deeply involved with that. Are there some other areas in technologies that the UK should be orienting its supply chains towards?
Matthew Stead: I’m personally 100% biased towards blades ’cause w- we know that, you know, um, if we look at the failures and we look at the failure rate, you know, where is the greatest growth in failure rates? It’s blades. Um, [00:12:00]you know, why, why are we still having failures? Why haven’t we learned? You know, where is the knowledge exchange?
Um, so I- I’m biased, but I think it’s, it’s, it’s, it’s needed in, in the blade space. Yeah, as what, you know, Rosie and you were talking about before, um, you know, knowing more about, um, what’s going on, how it can be repaired, how it can be dealt with, I think is super, super critical.
Allen Hall: Well, Vineyard Wind has its 62 turbines in the water south of Martha’s Vineyard, but the project is delivering only partial power while GE Vernova works through its outstanding repairs.
Now, the financial pressure is breaking into public view on two fronts. Boston landlord BP Hancock LLC is suing Vineyard Offshore, uh, the Avangrid and BP joint venture, for nearly $1.2 million in back rent at its John Hancock Tower offices. Uh, separately, GE Vernova wants out of its turbine supply contract, claiming Vineyard Wind owes [00:13:00] it over $300 million.
Vineyard Wind fires back that it is actually owed more than 800 million from GE Vernova, so that, that saga will continue for a while. But it is a little odd that the rent is not being paid by Vineyard Wind at, at, in the John Hancock Tower. And if you’re familiar… That’s downtown Boston. If you’re familiar with downtown Boston, that, the John Hancock Tower is one of those iconic buildings you see in pretty much every downtown photo of Boston.
There must be a lot happening at the moment at Vineyard that they’re not able to pay the rent, or they’re trying to shuffle some money around or, or seek more financing. Sounds like they’re in a refinancing phase, honestly. Yeah,
Yolanda Padron: I know that at, at times there’s– it’s really common for, for an asset manager to think, you know, “Oh, we have X amount of money,” and then all of a sudden you– it’s all of the, the additional [00:14:00] repairs or the additional operational costs stack up to a bit more than they thought they were gonna have, and then maybe they don’t even have enough money to go do trash removal or anything.
And that happens, and it’s more often than, than we’d like to admit. Um, but this is on a bigger scale, right? Like, this is a project that we’ve talked a lot about, everyone’s talked a lot about, and it has a lot of eyes on it. And so for it to, to be so behind on rent on such an iconic place and such an important place and such an important part of the country, backed by a very important company, it’s really, it’s really interesting to, to think about kind of what they’re thinking.
‘Cause in, in my mind, right, like, if I was the people backing them, I would think, “Okay, well, the f- first thing’s first, like, let’s not give them any additional reason to hate us right now.” Right? Or like, you know, the public opinion is really big on these kind of things. Um, so I, I don’t, I don’t know what the, what [00:15:00] the exact plan is here.
Allen Hall: Well, I wonder if this is part of the, the negotiation with GE Vernova, that, uh, the, the payments and the, the power which leads to payments, uh, hasn’t been at it- its desired output from Vineyard Wind and is this an effort to, uh, shore up their legal case with GE Vernova to say, “Hey, look, uh, Avangrid’s not gonna throw a bunch of money in, even for rent.
This project needs to stand on its own two feet, and it can, but GE Vernova needs to be involved with it and get the turbines up and running to the level at which they were contracted to do”? Is this part of that play? ‘Cause it just feels like it. You know Avon Grid has the money to pay the rent. That’s not even a question.
It’s, but it’s why they are not doing it is probably the bigger question at the moment. Is, is it just all legal maneuvering at the minute?
Matthew Stead: I, I wonder if it’s a bit like, uh, you get the utility billing, you get the [00:16:00] electricity billing, you put it in the, the drawer over there, and then you forget about it, and then you forget to pay it, and-
Allen Hall: It’s a million dollars
Matthew Stead: $1 million out of, uh, 600 or whatever billions, you know? Maybe it was, maybe it was just a simple oversight.
Allen Hall: It could totally be oversight, but it’s, it seems like with the amount of attention that Vineyard Wind and GE Vernova are, are getting, and they are literally within a stone’s throw of one another, they can s- I’m– You could probably see the GE Vernova building from the John Hancock Tower, that, uh, you, you think that some of this would get settled, but it’s not.
It’s still going on. It’s, it’s crazy. It– With, and with Avon Grid and BP still being involved with it somewhat, uh, there’s something happening behind the scenes that has not poked its head up yet. It’s coming, though. This is all coming to a head pretty quickly. The– Massachusetts needs Vineyard Wind to run.
They really do, and it’s, it is a little surprising at [00:17:00] times that the state of Massachusetts is standing on the sidelines in this.
Matthew Stead: As wind energy professionals, staying informed is crucial, and let’s face it, difficult. That’s why the
Allen Hall: Uptime Podcast recommends PES Wind Magazine. PES Wind offers a diverse range of in-depth articles and expert insights that dive into the most pressing issues facing our energy future.
Whether you’re an industry veteran or new to wind, PES Wind has the high-quality content you need. Don’t miss out. Visit peswind.com today. In this quarter’s PES Wind, there’s a lot of good articles in there. If you don’t have a copy, you can go to peswind.com and download one. A interesting article from Safe Lifting, which is a European-based lifting company that does basically bespoke engineering on lifts, and they’ve been making a push that’s saying that the next wave of projects depends on bigger [00:18:00] turbines, of course, which means bigger lifts, but they need to have some standardization to them.
Uh, things like spreader beams and rigging systems that are pre-built and pre-validated, uh, just reduce the overall engineering time it takes to do these lifts. Uh, and rental equipment models are a lot lower cost than buying OEM-specific or site-specific lift equipment, trying to keep the capital costs down.
That’s one of the big pushes in the wind industry is lowering the overall cost of installation. It does make sense, but it– as we were talking off-air a minute ago, a lot of lifts for basically the same kind of turbine are different. The, the connection points are different. There’s a lot of engineering that goes on there, and as the turbine sizes reach 15 megawatts plus, and the cells are massive, blades are massive.[00:19:00]
But it does seem like in a lot of other aspects of wind, there is some standardization, an IEC spec or some sort of overall guidance document for the industry that like, let’s put the lift points here, here, here, and here and lift with the right equipment. And Matthew, we just haven’t done it in lifting, even in smaller turbines, same thing.
Matthew Stead: Oh, it’s crazy. Um, I was, I was thinking about it, and, you know, my, my suggestion would be that, you know, when I buy 100 turbines, I should get, um, a blade lifting kit. It’s like when you buy a car, you, you get a, you get a kit to change the tire, don’t you? So I would’ve thought it would be just fundamental. Um, but, but, but we know that the wind industry is not always logical.
Um, so what is, what might be considered normal in a car is not normal for a wind turbine. Um, but yeah, uh, you know, this sounds like a perfect way of going to have more of a sort of standardized and, you know, not, not wait for the OEMs, but actually lead this and, and [00:20:00] drive this standardization. So yeah, thumbs up from me.
Yolanda Padron: I think this is really cool. Uh, I really hope that if we can standardize the way that we do that, we can make sure that the teams are trained in, like, the standard ways of, of lifting. I know that, um, I’ve, I’ve seen a few cases where someone didn’t know, there hadn’t- been exposed to a particular blade type and they were in char- you know, in charge of, of lifting it to, to, to do a blade replacement and then, um, they accidentally ended up damaging the blade and so you had this bad crack that they kind of painted over because it was a little bit embarrassing for them at the time.
And then, you know, a year later it’s like, well, okay, well, maybe next time ask someone, um, if you if you don’t know the, the exact lifting protocols or, or if you mess up, you know, let someone know. Um, but, but [00:21:00] yeah, the, you know, a lot of these, these smaller and, and larger structural cracks that, that come from, from lifting errors would be avoided if everybody was doing the same thing or the same two iterations of Of lifting standards, which is really exciting
Matthew Stead: Y- y- if you’ve got a wind farm, y- y- you’re guaranteed you’re gonna have to drop a blade at some point, aren’t you?
Allen Hall: And a gearbox
Matthew Stead: and a generator It’s, it’s pretty much a given. So like, like I said before, I reckon it should just be part of the standard kit that you buy, is you, you, you buy a substation, but you also buy a lifting, a lifting kit as well.
Allen Hall: It’s one of the more, uh, dangerous parts of wind is lifting, clearly, and we’ve seen that over time.
And, uh, having standardized equipment, back to Yolanda’s point, does make a lot of sense because if you’re out there doing this quite often and you have different rigging for every different OEM, you can get crosswise, and things happen. And if we had some standardization there, that would make a tremendous [00:22:00] amount of sense.
That’s why, uh, Safe Lifting wrote this article on PES Wind. So if, if you wanna read this article, just visit peswind.com. When engineers plan an offshore wind farm, they try to account for everything, including seabirds. And at the Horns Rev wind farm in the Danish North Sea, the layout was meant to leave birds a clear way through, but the birds had, uh, ideas of their own.
After 26 years of patient monitoring, researchers found that the turbines did not simply chase wildlife away. Instead, they reshuffled the entire neighborhood in the sky, turning some species into avoiders and others into opportunists. So this has been a big discussion in the wind industry for a long time, particularly for offshore wind projects, of what to do with the birds.
And the early assumption was that, hey, let’s just give them a pathway where they can fly [00:23:00] through, and birds have made up their minds. Some are taking that path. Others are avoiding it because of the change in the which, uh, species are hanging out where. This is a remarkable outcome, and it’s been going on long enough that there’s, uh, some statistical relevance to it now.
Do we need to get some bird psychologists involved in these offshore projects on how we think of how birds behave? Because I think to the engineering community, you know, like, you, you put a road there for you to fly through, bird, and then you decide not to. This is at a different level than engineering.
Yolanda Padron: I think it’s great to do as much as you can do, right? It’s amazing that they did all of this work. It is kind of funny. I mean, it’s, it’s sad. I’ve… I’m, I’m gonna get into trouble on LinkedIn or something by someone. I, I mean, it’s, it’s sad, of course, if, if birds get hit, right? But it’s, it’s, we can’t control everything.
You [00:24:00] know, as much planning that went into this, it’s
And what’s the next step here?
Matthew Stead: Well, first of all, 26 years? Is that correct? Yeah, 26 years. I mean, m- I, my- the thought that came to mind is that sometimes engineers don’t understand the natural environment. Sorry, just, just take that as a, as a observation. But, you know, I- it just reminds me of when, um, when civil engineers lay out paths and pavement, you know, they put a path in, but then people walk around it.
People do whatever they wanna do. And so, you know, I, I don’t think we can actually design out some of these things because we just will never understand the bird, we’ll never understand the human. Um, so yeah, I think put a little bit of effort in. I think going back to what Yolanda said, just put a, a bit of effort in.
But yeah, actually, there are some things in this world we can’t control.
Yolanda Padron: Yeah, I mean, [00:25:00] there’s, there’s of course endangered species. There’s of course, you know, a lot of, a lot of monitoring companies out there that do a really good job. Depending on what you need and depending on, you know… You can tailor your site needs around w- what’s gonna happen, right?
Or, you know, if you know that you’re in the migratory pattern of a particular species- There’s, I know there’s a lot of very smart people hard at work to make sure that your site is tailored to fit what needs to, what needs to happen there. And it’s great. I think it’s a great, it’s great to know, you know, that, that people in this industry care about birds.
I know I once had to go through extra check at TSA because the, the person there said, you know, “Oh, you work in wind? Save the birds.” And then he sent me through this, like, a lot, because he, he thought I was killing birds every day. Um, so I mean, you know, [00:26:00] we’re not killing birds out here, and it’s great, and it’s lovely to see all the hard work that goes into this.
But it, but it also, it’s, it’s important to note that the plans aren’t gonna be 100% foolproof, and that’s okay. You can just try your best.
Allen Hall: What’s the one bird you would assume as an engineer would not care if the wind turbines were there or not? The bird you see absolutely everywhere around the sea.
Matthew Stead: Seagull.
Allen Hall: Seagull. They do not care. They love wind turbines. They’ll use them as perches. I’m sure that, uh, yeah, a lot of, uh, technicians had to deal with seagulls, uh, hanging around the wind turbines. That has to be a thing. So it just depends on the species, for sure. Which is unique, right? E- every species has its own separate personality and things that it likes to do.
Uh, so in some of the wind turbines, I’m sure the seagulls are probably an annoyance, but they’re gonna let them be. And s- and some other species just don’t wanna be around the wind turbines, so even if you put a pathway through them, they’re just not gonna be [00:27:00] there. That’s an interesting finding.
Matthew Stead: It’s like onshore as well.
I mean, cows and sheep love to stand in the shade of a wind turbine, so they like to hang around. They scratch themselves on the, on the, the stair. You know, they, they rub themselves on the bolt covers. You know, they try and eat stuff. Goats, goats are particularly bad.
Allen Hall: Goats are really aggressive on wind farms for finding wires.
Absolutely. An- anything to eat.
Yolanda Padron: Raccoons.
Allen Hall: Yes. Raccoons.
Yolanda Padron: Snakes.
Allen Hall: The snakes do hide out in the shade. That is one thing you gotta be careful about is, uh, especially in Texas, of kicking over a rock and finding a snake, so make a lot of noise when you’re walking in Texas. That’s the plan. That wraps up another episode of the Uptime: Wind Energy podcast.
If today’s discussion sparked any questions or ideas, we’d love to hear from you. Reach out to us on LinkedIn, and don’t forget to subscribe so you never miss an episode. And if you found some value in today’s conversation, [00:28:00] please leave us a review. It really helps other wind energy professionals discover the show.
So for Rosie, Yolanda, and Matthew, I’m Allen Hall, and I’ll see you here next week on the Uptime: Wind Energy podcast.
Renewable Energy
The Sharia Law Onslaught
Here’s an ultra-right-winger who thinks that his voters are so stupid that they’ll believe that U.S. courts are routinely sentencing thieves to have their hands amputated.
We have huge problems in this country, but the “onslaught” of Sharia Law isn’t one of them.
This is a fine example of the decay of American education. Think back to when you were in junior high school. If someone said something like this, wouldn’t you have asked, “Are you serious? Radical Islam has usurped the U.S. Constitution? Can you provide any evidence to support this?
Now, we accept it, because some Trump supporter in congress tells us it’s true.
Forget about the Epstein files and the overt corruption in the White House. Let’s focus on Sharia Law.
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