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Introduction Largest Wind Farm in the world

What is Wind Farm

A wind farm is a collection of wind turbines that are installed in a specific location to generate electricity from wind energy

Wind turbines convert the kinetic energy of wind into electrical energy by using blades to capture the wind and spin a rotor, which turns a generator to produce electricity. Wind farms are typically located in areas with strong and consistent wind patterns, such as coastal areas, hilltops, or open plains.

Wind farms can range in size from a few turbines to hundreds of turbines, and they can generate enough electricity to power a small town or a large city. Wind energy is a renewable and clean source of energy, which means that it does not produce greenhouse gases or other pollutants that are harmful to the environment. As a result, wind farms are becoming increasingly popular renewable energy as a way to reduce reliance on fossil fuels and mitigate climate change.

wind farm

How wind farm works?

Wind farms generate electricity by harnessing the kinetic energy of the wind to turn turbines, which in turn generate electricity through a generator. 

The basic components of a wind turbine include:

Rotor blades: These are the long, aerodynamic blades that capture the wind and start to turn when wind hits them.

Nacelle: This is the housing that sits atop the tower and contains the gearbox, generator, and other key components.

Tower: This is the tall structure that supports the rotor blades and nacelle.

Control system: This system monitors wind speed and direction and controls the turbine’s yaw system, which turns the nacelle and rotor to face the wind.

Electrical equipment: This includes transformers, switchgear, and power cables, which transmit the electricity generated by the turbine to the power grid.

As the wind blows, it spins the rotor blades, which are connected to the generator in the nacelle. As the rotor blades turn, the generator produces electricity, which is then sent to the power grid. The electricity generated by each turbine is relatively small, but when many turbines are combined in a wind farm, the amount of electricity generated can be significant.

The efficiency of a wind turbine depends on several factors, including the wind speed, the size and design of the rotor blades, and the altitude of the turbine. The optimal wind speed for generating electricity is between 12 and 25 miles per hour.

20 Largest Wind Farm in the world

Benefits of a wind farm

Wind farms have several benefits, including:

Renewable and Clean Energy: Wind energy is a renewable source of energy that does not produce greenhouse gases or other pollutants. Wind farms generate clean electricity, which can help reduce reliance on fossil fuels and mitigate climate change.

Energy Security and Independence: Wind energy is a domestic source of energy that can help reduce dependence on imported energy sources. Wind farms can improve energy security and independence by providing a reliable source of electricity.

Job Creation and Economic Development: Wind farms can create jobs and stimulate economic development in rural areas. The construction and operation of wind farms require skilled workers, and wind energy can provide a new source of income for landowners.

Low Cost: Wind energy has become increasingly cost-competitive with traditional sources of electricity, such as coal and natural gas. As a result, wind farms can provide low-cost electricity to consumers.

Flexibility: Wind farms can be built in a range of sizes, from small-scale projects to large utility-scale projects. Wind energy can be integrated with other renewable energy sources, such as solar energy, to provide a more reliable and flexible source of electricity.

Reduced Carbon Emissions: Wind farms can help reduce carbon emissions by displacing electricity generated from fossil fuels. This can help mitigate climate change and improve air quality.

Wind farms can provide a range of environmental, economic, and social benefits to communities and society as a whole.

20 Largest Wind Farm in the world

20 Largest Wind Farm in the world 

The development of renewable energy sources has become a crucial aspect of combating climate change and reducing our dependence on fossil fuels. Wind power is a rapidly growing sector, and the 20 largest wind farms in the world are playing a significant role in generating clean and sustainable energy.

These wind farms, located across different countries and continents, collectively have a massive capacity to generate power, with some producing enough electricity to power entire cities. They not only help reduce carbon emissions but also create job opportunities and boost local economies.

As we continue to transition towards a greener and more sustainable future, it is crucial to invest in the development of renewable energy sources such as wind power. 

The 20 largest wind farms in the world are a testament to the potential of this sector and serve as an inspiration for future projects.

gansu Wind Farm Power Plant, china

1. Gansu Wind Farm, China

22,500 MW – State Grid Corporation of China

Gansu Wind Farm Spesification

The Gansu Wind Farm is one of the largest wind power projects in the world, located in Jiuquan, Gansu province, China. The wind farm consists of several clusters of turbines spread out across an area of over 70,000 hectares (173,000 acres) of desert terrain. The farm was built in several phases, with construction starting in 2004 and continuing through 2019.

The Gansu Wind Farm has a total installed capacity of 20,000 MW, generated by over 7,000 wind turbines. The turbines are manufactured by a variety of companies including Goldwind, Vestas, and Sinovel, among others. The turbines range in size from 850 kW to 6 MW, with rotor diameters ranging from 52 to 135 meters.

The wind farm is operated by several different companies, including China Guodian Corporation, China Datang Corporation, and China Huadian Corporation, among others. Together, these companies are responsible for maintaining the turbines and ensuring that the wind farm operates at maximum efficiency.

The Gansu Wind Farm plays an important role in China’s efforts to reduce its reliance on fossil fuels and increase its use of renewable energy sources. The project has helped China to become the world’s leading producer of wind power, and has helped to reduce the country’s greenhouse gas emissions. The wind farm also provides a significant source of employment for people in the region, with over 20,000 people estimated to be employed in the wind power industry in Gansu province alone.

Jiuquan Wind Power Base

2. Jiuquan Wind Power Base, China

20,000 MW – China Guodian Corporation and China Three Gorges Corporation

Jiuquan Wind Power Base, China – spesification

Jiuquan Wind Power Base is one of the largest wind farms in the world, located in Jiuquan, in the Gansu province of China. Here are some specifications of the Jiuquan Wind Power Base:

Total capacity: 20,000 MW

Number of turbines: Over 7,000

Area covered: Approximately 43,000 square kilometers

Investment: Approximately 120 billion yuan (US$18.5 billion)

Annual power generation: Over 40 TWh (terawatt hours)

Carbon dioxide reduction: Over 16 million tons per year

The Jiuquan Wind Power Base is operated by the State Grid Corporation of China and was developed in multiple phases. Construction on the wind farm started in 2006 and was completed in 2020, making it one of the most recent and largest wind power bases in China. The Jiuquan Wind Power Base plays a crucial role in China’s efforts to reduce its carbon emissions and promote the use of renewable energy.

Alta Wind Energy Center

3. Alta Wind Energy Center, USA

1,550 MW – Terra-Gen Power

Alta Wind Energy Center, USA – spesification

The Alta Wind Energy Center is located in the Tehachapi Pass, Kern County, California, USA. It is one of the largest wind farms in the world, with a total installed capacity of 1,548 megawatts (MW). Here are some specifications of the Alta Wind Energy Center:

Total installed capacity: 1,548 MW

Number of wind turbines: 586

Turbine capacity: Varies depending on the model, ranging from 1.5 MW to 3 MW

Owner and operator: Terra-Gen Power LLC

Year of commissioning: The wind farm was built in several phases between 2010 and 2013.

Power output: The wind farm generates enough electricity to power around 450,000 homes annually.

Environmental benefits: The wind farm displaces approximately 5.1 million metric tons of CO2 emissions each year, equivalent to removing over one million cars from the road.

Employment: The wind farm has created approximately 3,000 jobs during the construction phase and 35 permanent jobs for operation and maintenance.

Transmission: The wind farm is connected to the grid via Southern California Edison’s Tehachapi Renewable Transmission Project, which includes a network of new transmission lines and substations to transport the renewable energy from Tehachapi to major population centers in Southern California.

Investment: The total cost of the project was around $2.5 billion, making it one of the largest renewable energy investments in the United States.

Roscoe Wind Farm USA

4. Roscoe Wind Farm, USA

781.5 MW – E.ON Climate and Renewables

Roscoe Wind Farm, USA  – spesification

Roscoe Wind Farm is a wind power project located in the western part of Texas, USA. Here are some of its specifications:

Capacity: 781.5 MW

Turbines: 627 wind turbines

Turbine Manufacturer: General Electric (GE)

Total Area: Over 100,000 acres

Annual Production: Over 2 billion kilowatt-hours (kWh) of electricity per year

CO2 Emissions Avoided: Over 1.5 million metric tons per year

Operator: E.ON Climate & Renewables

Construction Started: 2007

Cost: Approximately $1 billion USD

Horse Hollow Wind Energy Center USA

5. Horse Hollow Wind Energy Center, USA 

735.5 MW – NextEra Energy Resources idAmerican Energy

Horse Hollow Wind Energy Center, USA –  spesification

Horse Hollow Wind Energy Center is a wind farm located in Taylor and Nolan Counties, Texas, USA. It was the largest wind farm in the world at the time of its completion in 2006, and it is still one of the largest in the world. Here are some specifications of the Horse Hollow Wind Energy Center:

Number of turbines: 421

Total installed capacity: 735 MW

Owner and operator: NextEra Energy Resources

Commissioning date: 2006

Turbine height: 213 feet (65 meters)

Rotor diameter: 331 feet (101 meters)

Blade length: 139 feet (42 meters)

Annual electricity production: Approximately 2 billion kilowatt-hours, which is enough to power around 220,000 homes in the USA

Carbon dioxide emissions avoided annually: Approximately 1.2 million metric tons, which is equivalent to taking around 225,000 cars off the road

The Horse Hollow Wind Energy Center provides a significant amount of clean energy to the Texas power grid and helps to reduce carbon emissions.

Shepherds Flat Wind Farm USA

6. Shepherds Flat Wind Farm, USA

845 MW – Caithness Energy

Shepherds Flat Wind Farm, USA  – spesification

The Shepherds Flat Wind Farm is located in Oregon, USA and is one of the largest wind farms in the world. Here are some of its specifications:

Total capacity: 845 MW

Number of wind turbines: 338

Turbine manufacturer: General Electric

Turbine model: GE 2.5xl

Rotor diameter: 100 meters

Hub height: 80 meters

Blade length: 49 meters

Annual energy output: Approximately 2 billion kilowatt-hours, enough to power about 235,000 homes

Owner and operator: Caithness Energy

Construction of the Shepherds Flat Wind Farm began in 2009 and it began commercial operation in 2012. The wind farm generates clean energy that is delivered to Southern California Edison under a long-term power purchase agreement.

Fosen Vind Wind Farm Norway

7. Fosen Vind, Norway

1050 MW – Statkraft and TrønderEnergi

Fosen Vind, Norway – spesification

Fosen Vind is a cluster of six wind farms located on the Fosen peninsula in Trøndelag, Norway. Here are some of its specifications:

Capacity: Fosen Vind has a total installed capacity of 1,056 MW, making it the largest onshore wind farm in Europe.

Number of turbines: There are a total of 278 turbines in Fosen Vind, spread across six different wind farms.

Height: The turbines at Fosen Vind have a hub height of 80 meters and a rotor diameter of 112 meters.

Cost: The total cost of the project was approximately 11 billion Norwegian krone (NOK).

Annual production: The wind farm produces around 3.6 TWh of renewable energy annually, enough to power around 170,000 Norwegian homes.

Ownership: Fosen Vind is jointly owned by the Norwegian power companies TrønderEnergi, Statkraft, and Nordic Wind Power DA.

London Array Wind Farm - UK

8. London Array, UK

630 MW – Ørsted, EON, and Masdar

London Array, UK  – Spesification

The London Array is a large offshore wind farm located in the outer Thames Estuary in the UK. Here are some specifications:

Capacity: 175 turbines with a total capacity of 630 MW

Turbine type: Siemens SWT-3.6-120

Height: Each turbine has a height of 147 meters (482 feet) from sea level to blade tip

Distance from shore: Located approximately 20km (12.4 miles) off the coast of Kent, UK

Area covered: 100 km² (38.6 mi²)

Annual output: Approximately 2.5 TWh, enough to power around 500,000 UK homes

Commissioned: Fully operational in 2013

Owners: A consortium comprising of EON, DONG Energy, and Masdar.

Anholt Offshore Wind Farm, Denmark

9. Anholt Offshore Wind Farm, Denmark

400 MW – DONG Energy

Anholt Offshore Wind Farm, Denmark  – Spesification

The Anholt Offshore Wind Farm is a large-scale offshore wind farm located in the Kattegat Sea, about 20 km off the coast of Djursland, Denmark. It was commissioned in 2013 and is currently one of the largest offshore wind farms in the world. Here are some of its specifications:

The wind farm consists of 111 wind turbines, each with a capacity of 3.6 MW, for a total installed capacity of 400 MW.

The rotor diameter of each turbine is 120 meters, and the hub height is 80 meters above sea level. The blade length is 58.5 meters, making the total height of the turbine 198.5 meters.

The wind farm covers an area of approximately 88 square kilometers and is capable of producing enough electricity to power around 400,000 Danish households per year.

The project was developed by DONG Energy (now Ørsted), and cost around €1.2 billion to build.

The wind farm is expected to reduce CO2 emissions by around 900,000 tonnes per year, compared to traditional fossil fuel power plants.

The Anholt Offshore Wind Farm is connected to the Danish grid via a 150-kilometer-long submarine cable, which brings the electricity ashore at the town of Grenaa on the eastern coast of Jutland.

XEMC Darwind Hengtong Wind Farm China

10. XEMC Darwind Hengtong, China

400 MW – XEMC Group

XEMC Darwind Hengtong, China  – Spesification

XEMC Darwind Hengtong is an offshore wind farm located in Fujian province, China. Here are some specifications:

Total capacity: 30 MW

Number of turbines: 7

Turbine model: XD115/4.5MW

Rotor diameter: 115 meters

Hub height: 90 meters

Total height: 141 meters

Water depth: 23-33 meters

Distance to shore: 15 km

Year of commissioning: 2017

The XD115/4.5MW turbines are specifically designed for offshore wind farms and feature a permanent magnet direct drive system, which provides high energy efficiency and reliability. The wind farm is operated by XEMC Darwind, a Dutch wind turbine manufacturer, and Hengtong Group, a Chinese cable manufacturer.

Sheringham Shoal Offshore Wind Farm, UK

11. Sheringham Shoal Offshore Wind Farm, UK

316.8 MW – Equinor, Statkraft, and Green Investment Group

Sheringham Shoal Offshore Wind Farm, UK – Spesification

The Sheringham Shoal Offshore Wind Farm is located in the North Sea, approximately 17-23 kilometers off the coast of Norfolk, UK. It became operational in 2012 and is owned by Equinor (40%), Green Investment Group (20%), and two utilities from Norway (Stadtwerke München and Agder Energi) with a 20% stake each. Here are some specifications of the wind farm:

Number of turbines: 88 Siemens Gamesa turbines

Turbine capacity: 3.6 MW each

Total capacity: 317 MW

Annual electricity production: Approximately 1.1 TWh, which is enough to power around 290,000 UK homes

Substations: Two offshore substations and one onshore substation

Macarthur Wind Farm Australia

12. Macarthur Wind Farm, Australia

420 MW – AGL Energy and Meridian Energy

Macarthur Wind Farm, Australia  – Spesification

The Macarthur Wind Farm is a large-scale wind energy project located in Victoria, Australia. Here are some of its specifications:

The wind farm has a capacity of 420 MW and is one of the largest in the southern hemisphere.

The project consists of 140 Vestas V112-3.0 MW wind turbines, each with a rotor diameter of 112 meters and a hub height of 85 meters.

The turbines are spread over an area of around 5,500 hectares and are connected to a 500 kV substation via a 70 km transmission line.

The Macarthur Wind Farm was developed by AGL Energy and Meridian Energy, with construction starting in 2010 and commercial operations commencing in 2013.

The wind farm generates around 1,500 GWh of clean electricity annually, enough to power around 220,000 Australian homes and offset approximately 1.7 million tonnes of carbon dioxide emissions each year.

Gemini Wind Farm Netherlands

13. Gemini Wind Farm, Netherlands

600 MW – Canadian Pension Plan Investment Board, Northland Power, and Siemens Financial Services

Gemini Wind Farm, Netherlands  – Spesification

The Gemini Wind Farm is a large offshore wind farm located in the Dutch part of the North Sea, approximately 85 kilometers north of the coast of Groningen. Here are some specifications of the Gemini Wind Farm:

Capacity: 600 MW

Number of turbines: 150 Siemens SWT-4.0-130 turbines

Turbine height: 115 meters (hub height) and 190 meters (tip height)

Turbine rotor diameter: 130 meters

Total area: 68 square kilometers

Distance from shore: 85 kilometers

Developer: Gemini Wind Park B.V.

Owner: Northland Power (60%) and Siemens Financial Services (40%)

Construction started: 2015

Commissioned: 2017

Annual electricity production: Approximately 2.6 TWh, which is enough to power around 1.5 million households and reduce CO2 emissions by approximately 1.25 million tonnes per year.

Gemini Wind Farm is one of the largest offshore wind farms in the world and plays a significant role in the Netherlands’ transition towards renewable energy.

Muppandal Wind Farm, India Overview

14. Muppandal Wind Farm, India

1500 MW – Suzlon Energy and China Power Investment Corporation

Muppandal Wind Farm, India  – Spesification

The Muppandal Wind Farm is located in the state of Tamil Nadu, India. It was commissioned in 2001 and has a total installed capacity of 1,500 MW, making it one of the largest wind farms in India. The wind farm comprises of over 3,000 wind turbines, which are spread across the Muppandal hill range and the neighbouring areas. The turbines have a hub height of 50-80 meters and a rotor diameter of 43-46 meters. The wind farm generates over 3 million units of electricity per day, which is supplied to the Tamil Nadu Electricity Board. The project was developed by the Tamil Nadu Electricity Board and has been instrumental in promoting the use of renewable energy in India.

Rosarito Wind Farm Mexico

15. Rosarito Wind Farm, Mexico

300 MW – Fuerza Eólica de San Matías

Rosarito Wind Farm, Mexico  – Spesification

The Rosarito Wind Farm is a proposed wind energy project located in the municipality of Playas de Rosarito in the state of Baja California, Mexico. Here are some of its specifications:

Capacity: The wind farm is expected to have a capacity of 156 MW, generated by 39 wind turbines.

Turbines: The wind farm will use 39 wind turbines, each with a capacity of 4 MW.

Investment: The project is expected to require an investment of approximately $300 million USD.

Developer: The project is being developed by Eoliatec del Pacífico, a subsidiary of the French energy company Engie.

Electricity production: The wind farm is expected to generate approximately 565 GWh of electricity annually, which is enough to power around 220,000 homes in Mexico.

Carbon dioxide reduction: The Rosarito Wind Farm is expected to reduce carbon dioxide emissions by approximately 232,000 metric tons annually, which is equivalent to taking around 50,000 cars off the road.

Penonome Wind Farm Panama

16. Penonome Wind Farm, Panama

270 MW – InterEnergy Holdings and Actis

Penonome Wind Farm, Panama  – Spesification

The Penonomé Wind Farm is a wind power project located in the Penonomé District, Coclé Province, Panama. It is considered the largest wind farm in Central America and the Caribbean. Here are some specifications:

Number of turbines: 220

Total capacity: 555 MW

Turbine manufacturer: General Electric

Turbine model: GE 2.5-116

Annual production: 1,600 GWh

Developer: InterEnergy Holdings

Commissioned: 2015

Investment: $450 million

CO2 savings per year: 400,000 tons

The Penonomé Wind Farm covers an area of approximately 42,000 hectares and is expected to generate around 7% of Panama’s electricity consumption. The wind farm has helped Panama to diversify its energy mix and reduce its dependence on fossil fuels, contributing to the country’s goal of achieving 70% renewable energy generation by 2050.

Tarfaya Wind Farm Morocco

17. Tarfaya Wind Farm, Morocco

300 MW – NAREVA Holding and Enel Green Power

Tarfaya Wind Farm, Morocco – Spesification

The Tarfaya Wind Farm is a large wind energy project located in the Tarfaya Province of Morocco. Here are some of its specifications:

The wind farm has a total installed capacity of 301 MW.

It consists of 131 wind turbines manufactured by Siemens Gamesa with a capacity of 2.3 MW each.

The wind turbines have a hub height of 80 meters and a rotor diameter of 108 meters.

The wind farm covers an area of 8,900 hectares (22,000 acres).

The project was developed by Moroccan utility company Nareva Holding in partnership with the French energy company Engie.

It started operations in 2014 and supplies electricity to over 1.5 million people in Morocco.

The project cost around $560 million and is expected to reduce carbon dioxide emissions by 900,000 tons annually.

Rampion Offshore Wind Farm UK

18. Rampion Offshore Wind Farm, UK 

400 MW – EON, Green Investment Group, and Canadian Pension Plan Investment Board

Rampion Offshore Wind Farm, UK – Spesification

The Rampion Offshore Wind Farm is a wind farm located in the English Channel off the coast of Sussex, UK. Here are some specifications:

Total capacity: 400 MW

Number of turbines: 116

Turbine manufacturer: Siemens Gamesa

Turbine capacity: 3.45 MW each

Total project cost: £1.3 billion

Annual electricity generation: equivalent to the needs of around 350,000 homes

CO2 savings: equivalent to taking around 200,000 cars off the road

Owned by: E.ON (50.1%), UK Green Investment Rampion Ltd (25%), and Enbridge (24.9%)

Operational since: 2018

Ocotillo Wind Energy Facility

19. Ocotillo Wind Energy Facility

The Ocotillo Wind Energy Facility is a wind farm located in the Ocotillo area of Imperial County, California, United States. 

Here are some of its specifications:

Capacity: 265 MW

Turbines: 112 Siemens 2.37 MW turbines

Rotor diameter: 101 meters

Blade length: 49 meters

Total height: 140 meters

Annual output: Approximately 850,000 MWh

Commissioned: 2013

Operator: Pattern Energy

Land area: 12,436 acres

Location: Ocotillo, Imperial County, California, United States

Cost: Approximately $600 million

Carbon offset: Approximately 464,000 metric tons of CO2 per year

West of Duddon Sands Wind Farm

20. West of Duddon Sands Wind Farm

West of Duddon Sands – Spesification

West of Duddon Sands is an offshore wind farm located in the Irish Sea, about 14 kilometers (8.7 miles) from the Cumbrian coast of England and about 10 kilometers (6.2 miles) south-west of the Walney Island wind farm. 

Here are some of its specifications:

The wind farm was completed in 2014 and has a capacity of 389 MW, enough to power approximately 280,000 homes in the UK.

It comprises 108 turbines with a rotor diameter of 130 meters (427 feet) and a total height of 190 meters (623 feet).

The turbines were manufactured by Siemens and feature a direct-drive system.

The wind farm is jointly owned by Ørsted (formerly DONG Energy) and ScottishPower Renewables.

The project was built at a cost of approximately £1.6 billion ($2.2 billion USD).

It has a total area of approximately 67 square kilometers (26 square miles) and is located in water depths of up to 20 meters (66 feet).

The electricity generated by the wind farm is transmitted to shore via subsea cables to an onshore substation at Heysham, Lancashire.

20 Largest Wind Farm in the world

Conclusion for 20 Largest Wind Farm in the world and their Capacity

The world’s largest wind farms are primarily located in China and the United States, with a few notable exceptions in Europe, Australia, India, Mexico, Panama, Morocco, and the Netherlands. 

The largest wind farm in the world is the Gansu Wind Farm in China, with a total installed capacity of 22,500 MW. Other large wind farms include the Jiuquan Wind Power Base in China, the Alta Wind Energy Center in the USA, and the Fosen Vind in Norway. These wind farms provide significant amounts of clean and renewable energy, which can help reduce carbon emissions and mitigate climate change.

Wind energy is one of the fastest-growing sources of renewable energy worldwide, with a total installed capacity of over 743 GW.

The 20 largest wind farms listed earlier, there are many other notable wind farms around the world, including:

Horns Rev 3, Denmark – 407 MW

Walney Extension, UK – 659 MW

Shiloh Wind Power Plant, USA – 300 MW

Whitelee Wind Farm, UK – 539 MW

Clyde Wind Farm, UK – 523 MW

Kaunisvaara Wind Power Plant, Sweden – 235 MW

Lake Turkana Wind Power, Kenya – 310 MW

These wind farms, along with many others, are contributing to the global transition to clean and renewable energy. Wind energy has the potential to provide a significant share of the world’s electricity needs, and as technology continues to improve, it is likely that wind farms will continue to grow in size and capacity.

https://www.exaputra.com/2023/04/20-largest-wind-farm-in-world-and-their.html

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Renewable Energy

US Pushes LNG, Denmark Offshore Permits

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US Pushes LNG, Denmark Offshore Permits

This week we discuss the Danish government’s permit extensions for two offshore wind farms, the U.S. Senate’s new renewable energy bill, the Belgian government’s halted wind farm tender, and the complexities of laying seabed cables for wind farms.

Sign up now for Uptime Tech News, our weekly email update 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 FacebookYouTubeTwitterLinkedin and visit Weather Guard on the web. And subscribe to Rosemary Barnes’ YouTube channel here. Have a question we can answer on the show? Email us!

You are listening to the Uptime Wind Energy Podcast brought to you by build turbines.com. Learn, train, and be a part of the Clean Energy Revolution. Visit build turbines.com today. Now here’s your hosts, Alan Hall, Joel Saxon, Phil Totaro, and Rosemary Barnes. 

Allen Hall 2025: Well welcome back to Uptime Wind Energy Podcast.

I have Rosemary Barnes down in Canberra Australia. Phil’s in California, and evidently he lives next door to Prince Harry and Meghan Markle and I, I had no idea, Phil, like you’re that close to royalty. 

Phil Totaro: I’m not. You’re

Allen Hall 2025: making that up. Joel’s up in Wisconsin somewhere in the northern wilds of Wisconsin. Next to a cheese factory, and here I sit in Charlotte, North Carolina.

If we’ve been paying attention or if you’ve been paying attention to the news over the last, uh, 48 hours in America has been complete chaos as we are recording this and the US Senate has [00:01:00] passed a bill regarding renewable energy and it’s back to the house. Supposedly this is all gonna get signed off by the 4th of July.

So we’re recording it. Today is July 2nd. Um. So by the time you hear this, something may or may not have happened, and we’re trying to keep abreast of the latest, but I think there’s some other news going on around the world. And, uh, one of the stories we found interesting was the Danish Offshore, uh, agency Energy Agency has approved permit extensions for two of Denmark’s oldest offshore wind farms, which marks a major milestone for.

Wind energy longevity. The middle Gruden and Newstead offshore wind farms have received permission to operate for an additional 25 years and 10 years respectively. That is massive extension. Uh, the middle Gruden facility, which is built in 2001, has about 20 turbines and about 40 megawatts of capacity, and it’s owned by a community cooperative.

[00:02:00] And the Danes being on top of all these things, uh, allowed the extension after doing an engineering analysis showing that the infrastructure has more life. This is unusual. Is this just a artifact of early designs being overly conservative? And these wind farms can practically live forever? I think so. I, uh,

Joel Saxum: I like it.

Alright. I wish that all these wind turbines are built this way because it’s then you can get more longevity of, I think now of course when everybody has a repower now or tries to extend life, they’re trying to really do it. So they’re trying to, if we’re gonna put money, we’ll try to, you know, up the kilowatt, we’ll try to up the capacity, well then the foundations don’t hold and these kind of things.

So it’s kind of like if you look at, um. I’m up here in northern Wisconsin, not too far from my house. There’s a bridge that was built by the CCC, uh, the civilian Conservation Corps in like the, um, at the Great Depression. So like in the 1930s, late, [00:03:00] late 1920s. And that bridge is fine. Like it’s golden. It’s still good, right?

But it was overbuilt, super built to be heavy duty construction. And there’s another bridge just down the road from that same one over the same river that was done in the seventies that needs a complete replacement. Because it was done, it was done with like, you know, di different design functions, not as robust.

And, and it’s kind of like, oh, some of this first generation of older stuff is overbuilt, is toughly built. It’s the same thing. We talk about shorter blades, like a, you know, a V 47 or a GE one X, like those blades just last and, but you don’t see it as much anymore. So I, I, I’m happy to see this. I think it’s cool, uh, to see these things getting basically refurbished and.

Gonna have a life extension.

Allen Hall 2025: I don’t even know what the refurbishment process or the extension process looks like. Rosemary on something that is that old that’s made out of fiberglass and resin. How do you even evaluate something like that?

Rosemary Barnes: Well, what they [00:04:00] do is they, um, if, if you wanna do it properly, then you go back to the original, um, blade design files, um, and you basically, you rerun it, you can, and so you get a different result for two reasons.

Or two possible reasons. One could be that it didn’t see as hard of a life as what they designed for. So, um, you know, you can rerun with the actual loads that it saw if you have those available. And then the second thing is that, you know, these wind farms came on around the turn of the millennium, right?

Um, and so we’ve learned a lot, especially about, um, um, like how strong materials actually are. There are still gonna be some, some, you know, defects in some blades. That will see them fail before others. So you, you know, the blades are getting older. I would expect they will see more, more failures, but, um, there’s a lot better ways that you can monitor that sort of thing.

Now, you don’t just have to wait for a, a blade to break in half and fly off. Um, anymore. You can, uh, you know, install monitoring [00:05:00] stuff and, uh. Inspect them more frequently. You know, drone inspections are so much faster than, uh, if you would’ve had to get up on ropes and have a look at every, you know, square centimeter of blade surface.

So I think that there’s just, you know, that so many technologies have come so far since these, um, blades were designed, that there is a lot of scope to keep them going, if that makes sense. You know, a lot of times a turbine that was installed 25 years ago is gonna be tiny compared to today. So a lot of times people might not want to, um, they might wanna.

You put in new, new, bigger turbines instead.

Joel Saxum: Do you see, because, okay, so we talked about blades here for a second, right? But we have all kinds of rotating mechanical equipment, foundations, bolting all this. Do you see in my mind, in my mind, for something this old and wanting to extend that one, I see a massive NDT campaign.

I see checking bond lines on blades, looking at some metallurgical things, looking at some connection points offshore, looking at the foundations. I mean, of course you’re gonna do some seabed stuff, but that’s usually done in maintenance too. That’s a weird one there, because. [00:06:00] When you talk about maintenance, inspection, repair, and maintenance campaigns for offshore wind farms, there’s things that you don’t do onshore that you do complete offshore regularly, like scour inspections and some of the characterization site surveys, that stuff goes on regularly.

So that’s not something that you need to, oh, we gotta take this big campaign on. Should have regular every year bi-yearly data on that. So that’s cool, but I would see a big NNDT campaign in my mind. Um. I dunno. Maybe that’s Jeremy Hanks question.

Allen Hall 2025: Well, is this useful data that would help the industry just to know how these are performing?

Rosemary Barnes: I think it would be quite specific to the individual components. ’cause you, you know, if the wind farm had an initial life of what, 25 years, um, everything would’ve been designed to last 25 years. You don’t like, good engineering isn’t just making something as strong as you can because it’s gonna be much more expensive than it needed to be.

And what’s the point in having a. I don’t know, a tower that lasts for a a thousand years, but the blades only last for 30 years. There’s no, there’s no [00:07:00] point. Right. So, um, it would just be a matter of how, how excessively conservative the designers were in each case. It won’t be exactly the same for all of them.

I’m sure they’ll be exchanging many components probably. Um. Some components will just be preemptively, like we know that most of these are gonna fail, so we’re gonna do a site-wide, um, campaign to replace, you know, all these bearings or all these, you know, whatever component and then some other ones. It would be a matter of yeah, like waiting and seeing when they fail.

And I think that you’re right, Joel, that I. There’s so many good NDT technologies around now. Um, and, you know, predictive maintenance can, there’s a lot of sensors you can put in that will give you an early warning sign that things, you know, bearings don’t have a lot of life left in them or, or something like that.

And so then you can get really smart about your campaigns to, you know, keep it going.

Allen Hall 2025: Don’t let blade damage catch you off guard. eLog Ping sensors detect issues before they become expensive. Time consuming [00:08:00] problems from ice buildup and lightning strikes to pitch misalignment in internal blade cracks.

OG Ping has you covered The cutting edge sensors are easy to install, giving you the power to stop damage before it’s too late. Visit eLog ping.com and take control of your turbine’s health today. Belgium’s Federal government has unexpectedly halted the long plan tender for the Princess Elizabeth Offshore wind zone.

Just two months before bids were scheduled and the two gigawatt auction was set to launch in November, 2025. After four years of prep work and industry groups are calling the decision a violation of the coalition agreements and warn. It undermines investment certainty in Belgian offshore wind development.

Now, the, the Belgian government is saying that there’s a concern about the onshore grid readiness, uh, although there’s some dispute about that and that all they needed to do was wait a couple of months and it would’ve been fine. [00:09:00] What I’m wondering is there’s a lot of, uh, cancel projects happening. Over in Europe and the UK and this Belgium one, which has been going on for quite a while and has been sort of a point of pride for the last couple of years, all of a sudden seems to be on hold.

What is driving that?

Phil Totaro: Well, it’s, I mean, my, my best understanding of this is that they, there’s kind of a discussion as to what the function of these energy islands is gonna be and how much they’re really needing to invest in it. How much, uh. Are these going to be capable of serving as both service hubs and um, HVDC, uh, kind of collection points.

So there’s a camp in Europe that wants to do a significant amount to build out near term, uh, to be able to, you know, have the [00:10:00] capacity that we all talk about, both onshore and offshore. You know, if we have more transmission capacity, then we can add more. Um. You know, renewable energy, power generation, capacity whenever we want, uh, and, and need it to be able to meet demand.

Um, but they’re, I think, concerned at this point because of, you know, persistent high interest rates and inflation and things like that, which, you know, are gonna basically explode the project budget. So they wanna try to break it up into smaller phases that can be built in a more economically feasible way.

Allen Hall 2025: If the European Union has fines for not meeting commitments, they would get fined if they don’t. Get this project moving

Phil Totaro: theoretically, although that’s also always just a kind of an open thing. They, they can, you know, the, the current law says we’re gonna fine you, but if everyone kind of mutually agrees to forego the fine, then it’s just [00:11:00] kicking the can down the road.

Allen Hall 2025: Did you all see the wind Europe, uh, video today discussing the 20 30, 20 40, 20 50, uh, reaching. Essentially zero emissions are going back to 1990 emissions. And what is all involved with that? We’re mostly talking about heavy industry that is going to use a lot of electricity, it’s gonna switch off of gas, move to electricity, and it’s gonna take a little while to do that.

But it didn’t seem like there was any hesitation, at least from wind Europe, that it wasn’t going to happen. Obviously they’re a advocate for wind energy, uh, but it did. Seem in contrast to what we’ve been hearing in the United States. So it does seem like things are happening, at least at the top level politically in Europe, whereas in the United States, there seem to be somewhat on hold.

Why? I don’t think that’s an energy thing. I think

Joel Saxum: it’s a cultural

Allen Hall 2025: thing.

Joel Saxum: And if you look, if you look into [00:12:00] the E EU in general, they have more of a propensity to do things that are better for the whole and the group. Whereas in the US it’s more. Capitalism based, how can we make as much money as we can?

And capitalism based right now, natural gas is still cheap. If you can get a plant, if you can get electricity that way, you can get it. Whereas the EU will take more of a stance of doing things better for the long run. That’s my take on it.

Phil Totaro: They’ve been, you know, for the last three years, trying to put policies and mechanisms in place to be able to.

Have more domestic generation, um, for electricity and energy in general. Um, so, uh, this is part of why they’re trying to, um, you know, all motivate themselves collectively to move forward. But you’ve still got. Debates in some of the EU member countries like Germany right now with their offshore policy making, uh, France with onshore wind is still having an ongoing debate that’s holding up about $350 billion [00:13:00] worth of investment.

Uh, so. You know, it’s everybody’s moving as quickly as they can, but I think what’s also happening is everybody’s starting to recognize that, you know, if companies like RWE are pulling out of investing in the US at the moment, I. There’s money to be had and, you know, RW eor, um, you know, other companies that had originally intended to go build, you know, particularly offshore, but also some onshore and solar, uh, in the us if, if some of that money’s gonna be freed up, they wanna be able to capture it.

Allen Hall 2025: In the latest issue of PES Wind, which you can find online, just search for PES Wind using your Google engine. Uh, there’s a number of great articles and you, you need to go there and you need to download. This quarter’s, uh, magazine and, and Joel, there’s a, a really interesting article from, uh, go Be consultants about Seabeds and the cabling that happens on the seabeds and [00:14:00] all the difficulty of putting cables on the sea floor.

You always think I do as an electrical engineer. I’m like, it’s a cable. Just drop it on the sea floor and maybe put a couple of rocks on it to keep it from floating away. And you should be good. But it’s

Joel Saxum: a lot more difficult than that. There’s multiple phases of it too, right? So you have to do complete CED site characterization.

So you have to understand what the surface layout is. But then, okay, that surface layout, what is it composed of? Because some of this cable’s gonna sink into the silt, into the mud. Is there rocks down there? Is there rocks underneath the silt that when you lay it down, it could, could cut it? Is there currents where it’s gonna move it around?

Is that a problem? When people think, ah, it’s cable, they’ll just lay it on the sea floor. It’s not. It’s not simple. Um, and you with, I’m just, we’re just talking about site characterization. We haven’t talked about the actual operation of laying it or even loading it onshore and loading it offshore, because even at that level, a lot of damage to cables happens just during the manufacturing and loadout process.

Because it is so [00:15:00] difficult, uh, specialized vessels, specialized technicians, and people doing it, you pull on it too hard, it breaks, you push on it too hard, it breaks, you let it bend too much. It’s junk. It’s very, very, very difficult to lay cables correctly. And if you remember Alan, I think it was man, 2021, there was a, like a $1 billion, like a nine figure.

Insurance case about cable lay in the North Sea on the big wind farm.

Allen Hall 2025: Well, the article does say that 75% of cable problems are manmade phishing. Anchors and as we had seen was, was it late last year, a couple of anchor drops where their anchors were drug on purpose. There’s gonna be a lot more concern about that now and how those, uh, power cables are covered or buried.

I, I guess pretty much, uh, wasn’t the EU pushing to bury all the cables, particularly around the uk?

Joel Saxum: Yeah, there’s, there’s, I mean, there’s. It’s difficult in the UK too because there’s trenching [00:16:00] machines, right? So you have trenching machines that can trench things really easily into silt mud and that on those kind of loose sediments.

However, if you’ve ever been in some of these landing spots, like say like the Scottish Coast, like it’s all rock, right? So now you have a landing problem. You know, so you can, you can bury, you can cover with concrete mattresses, you can do rock bags, you can do all kinds of great stuff. You can also bury it a couple meters down with a trenching machine.

But then there’s the approaches and the, the current offshore that will unbury them and things. It’s very difficult to get it correct.

Allen Hall 2025: Yeah, it it, you need to go check out this article, but it, it lays out all the issues with protecting cables and you can see this and PES win to just go on to Google and look up ps win.com and read the article.

Very good and, and nice job by Goby by the way, uh, I didn’t know some of the things I’ve, I’ve learned a lot from Joel over the last year or two as he explains this to me very slowly. But this article was full of great details. As Wind Energy professionals staying informed is crucial, [00:17:00] and let’s face it difficult.

That’s why the 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 PS wind.com today. So as we discussed at the beginning of the show, the US Senate has introduced legislation that could provide some, uh, support to the wind industry. So when the latest. Big Bill, what are we calling it? Joel? Big beautiful Bill. Uh, there’s a new provision which basically says if you get roughly 5% of the project cost, uh, started with in the ground or done some work, then the project qualifies for production tax credits that will create, I think, a demand for turbines to be delivered [00:18:00] soon.

And, uh, the, the folks at Sid Bank put out an article, it was late last week or over the weekend that basically said, Hey, Vestus may get a lot of orders from this, uh, because they, they’ll have a lot of demand to get projects in the ground in the United States. Does that make sense? You think Vestas is gonna be the big winner there?

Well, Sid Bank is a vest, is a Danish

Joel Saxum: bank, so that makes, that makes sense. But they have the pulse, they’re there. I I, I don’t know if Vestas is a big winner. I think that there’s gonna be, if this is by 2027, you gotta have a certain amount of thing done. No matter what part of the value chain that you show in the United States for new, new development construction, you’re gonna be busy.

Till 2027 if this, if this thing passes everything the way it should, because simply it’s, it’s like the old oil and gas leases where, uh, if we’re doing work, we still get to extend the lease. So they go, come and park a dozer on your property and all of a sudden your lease gets extended. Definitely. It’s the same concept, right?

If you go out there and you gotta, [00:19:00] if it’s gonna spend 5% of the project, well, let’s go build roads and pads, um, and, you know, deliver a turbine or two. And now we’ve paid for 5% and now that stuff may. Sit there for a little while, while they catch back up. And I think that you’re gonna have an accelerated timeline of things getting done here in the next few years.

Uh, if this passes in its current form, um, I, I would expect the house to change some of these things, but. I’m not a part of the House of Representatives, so,

Allen Hall 2025: well, they’re gonna have to come to agreement pretty quick. And I’m curious as to where this all ends up. I listening to all the discussions over the weekend and reading a number of articles and trying to figure out like, what’s this deal?

Just broaden the scope here for a moment. What’s the deal with all the tariff talks? What’s the deal with all the l and g petroleum push in America? What is happening with the national debt, which is a big discussion in the United States at the [00:20:00] minute, and the Federal deficit, which is what, 34 $5 trillion, where the GDP of the US is about 27 20 $8 trillion.

So the, the debt’s bigger than the national GDP. There does seem to be be a play going on in, I was listening to a podcast this morning from oil and gas. I tried to keep track of these things and they were just really upset with what happened in the Senate. Oh my gosh. We haven’t penalized solar and wind enough.

We need to put more taxation on them to, and it was crazy. It sounded crazy. The oil and gas folks that are pro oil and gas, yeah, they’re gonna do what they’re gonna do. But it does seem like there is a maybe some method to this madness in terms of. What is the United States trying to accomplish here with all the oil and gas talk?

Because it does seem like the tariff talks turn into why are you not buying American LNG? [00:21:00] That’s where it seems to be headed. Do you see that quite often, like the national debt and is the the way to get the economy rolling where there’s more revenue coming into the federal government is to just pump, pump, pump.

This is the Joel. This is also the discussion about Alaska opening up all the. Uh, oil and gas exploration in Alaska, all of a sudden you have to have a customer for this product. And how are they gonna do that? Unless they’re gonna force it through tariff. The tariff talks and all the economic exchanges are gonna happen over the next, supposedly the next couple of weeks.

Joel Saxum: There’s a lot of, like, there’s some facts and numbers here too. Like, uh, the last one I saw was since we started putting. Heavier tariffs, uh, on trading partners. That $121 billion in tariff revenues rolled into the states in the last two, four months. So that’s, that’s, that’s one number. Um, the gas thing is the idea that we can turn it on right now and we can make money on it.

Right [00:22:00] now, I understand that, uh, there’s a big project in Alaska being pitched to get LNG off the North slope because right now only crude pumps off the North Slope. Um, so there’s a big LNG project in the works to get to build a new basically taps line, which is like a, it’ll be a $10 billion project to build a pipeline again across Alaska these days.

Um, and, but another thing that I think that people don’t realize, and this is the, the I’m, you know, I’m an ex oil and gas cot. I still play in that world every once in a while, but when, when people start to fight about the. The tariffs back and forth. We haven’t penalized this and the subsidies and these kind of things.

It’s really quite silly to me because what we really need right now is an all of the above energy strategy. We need as much as, as much as we can that’ll help us fuel the ai, AI, arms, race, data center race, all of these things. We need power and, and when you talk subsidies and people get mad about PTC credits or the IRA credits, they fail to realize sometimes, and I’m not saying they as a person, just people in general [00:23:00] like.

Drilling for oil and gas has been subsidized in the United States since 1913, right? The, the intangible drilling costs deduction for drilling companies. Like we’ve been doing this same thing. That’s the, that is the equivalent of an ITC credit. You’re gonna investment, you’re gonna, you’re gonna, you’re gonna invest to get power, or you’re gonna invest to get hydrocarbons.

We’re gonna give you a tax break on it. Same thing. Um, so these, you know, you’ve had clean coal tax credits for the last 20 years. We, these things are. Out there, right? Modified accelerated cost recovery systems, the macros tax, that’s been since 1986. And that’s for any advanced gas play like, uh, that actually subsidizes fracking.

So these, the, the, the idea that you have different parts of the, basically energy supply chain attacking each other is. It’s silly to me.

Allen Hall 2025: I think it goes beyond that too, Joel, because the US uh, trade talks with the UK and with Australia, it sounds like, uh, the [00:24:00] US administration is telling, uh, countries that could be LNG offtake.

I. Countries to stop building wind. Why are you building wind? Have you, have you seen those articles, Joel? Like why is the US telling the uk, why are you building wind? You should stop building wind. Well, the reason you would want them to stop building wind is so they can buy l and g. That’s why you would do that.

So they become dependent. Dependent on us. Exactly. So you can sell this product because otherwise you don’t have a marketplace for it. So if. If the goal is to raise cash United States relatively quickly by pumping LNG and oil and whatever else, something you can export, that’s why you’d have to do it.

And you need to bring more money into the country than goes out Selling petroleum is a way to do that. You have to cut off all the renewables. You can’t have Australia run on solar if you wanna sell ‘

Joel Saxum: em some l and g. It’s a power play, right? Because I’ll take some words from my, my buddy Kevin Doffing over at Project Vanguard.

Energy Independence is national security, [00:25:00] right? So if we, if we start talking to the UK, to Australia and say, oh, don’t do wind, just buy gas from us. Well, if they did that, then they become dependent on us for their energy needs and therefore their national security needs. I, if I was there, my BI was there, I’d say, get outta my office.

I don’t wanna talk to

Allen Hall 2025: you. That’s the higher level discussion, which I don’t hear in the press at all. I mean, ’cause they’re not thinking at that level. They’re all arguing about what Elon Musk says, and we’re missing the bigger picture that I think the United States is really pushing LNG really pushing petroleum to try to bring more revenue to the United States to help the economy in the United States.

And it’s a quick bandage on what’s been happening over the last 15, 20 years. That’s where it’s headed and that all the trade discussions that are happening seem to be revolving around oil. ’cause that’s the fastest way you’re gonna be able to generate revenue from the United States perspective. Because you can turn it on like that.

You can turn it on. Right. So the drill, baby drill mantra, that’s been. [00:26:00]talked about for the last really two years, it’s gonna come into action. But the problem with that approach is that China’s gonna build more solar panels. China’s gonna build more wind turbines. The Europeans are gonna build more wind turbines, and they’re gonna use a lot more solar panels, and there may not be a market for that petroleum product.

So the administration of the United States has to, has to cut that off.

Joel Saxum: I’m going down a rabbit hole here. Spin up the US petroleum production capabilities, which you, we already have. We can do, we got drill, drill and rigs sitting by it’s turn taps on. Like you can make it move, but you’re gonna make it move based on price.

What is the thing that makes the price? What is the thing that makes the price go up if, if people aren’t buying or if

Allen Hall 2025: even if they are, I think what’s we’re gonna find out over the next probably six weeks, I think what’s gonna happen in some of these trade negotiations that that’s gonna be a pivotable element.

Of the discussions is gonna be the purchase of petroleum from the United [00:27:00] States. That’s why I think a lot of these negotiations have been so drawn out because the thing that a, that the administration wants to sell today is a product that Australia and a lot of countries don’t need, but they’re still going to buy some of it.

I, I guarantee you, Australia can get cheaper l and g from Qatar than they can can gain from us. Exactly. Isn’t that how you’re going to tell if that is the American play? If a country like Australia who should not be buying LNG from the United States starts buying LNG from the United States, that I think is the instantaneous tell that that is where the US is trying to go to help offset all the deficit and everything else that’s going on.

I don’t. I’m not in agreement with the plague, as I think that’s a play you could have made in 1980. I don’t think you can do it in 2025. I think it’s gonna be a much [00:28:00] harder to do because countries are more electrically independent than ever before.

Rosemary Barnes: Yeah. I mean, this, Australia’s got similar decisions to make and I’ve been beating my head against the wall for 20 years.

I’m like, you can’t just force the rest of the world to keep on buying our coal, that the energy transition is happening, or at least it will happen or not based on. Things that are well beyond our control. So, you know, for us to dig our heels in and be like, no, coal’s amazing forever. Like, that’s great. If you’re only using your own coal, you can make that decision.

But when most of the value of Australian coal is by, you know, comes from selling it, uh, to other countries, that’s, you know, they, we can’t force them to keep on buying it. Um, I think Australia is, uh, may maybe does understand that now. Um, I, I don’t see as much, um. Yeah, burying the head in the sand kind of business as usual is even a possibility.

I don’t see that so much anymore, but yeah, I do feel like this latest, um, yeah, play from the US is [00:29:00] maybe a bit like, like you said, from the, it’s from the 1980s. It’s,

Allen Hall 2025: it’s part of is happening, which it helps explain it. I think the problem I, I have is no one’s explaining what’s happening. So when you see these moves, you’re like, why?

Why are we talking to the UK about l and g? Why are we talking to other countries about l and g? Why are we telling them not to put wind in? Why are we trying to crush wind in the United States? Why are the oil and gas folks in the United States so insistent that we tear down the existing wind farms? I don’t disagree with

Phil Totaro: what you’re saying about a lot of this, the, the.

But this goes back to what I keep saying and everybody thinks that I’m some kind of China apologist because of it. And it’s like the whole reason that they’re able to gain prominence is exactly because of the fact that they’re going out there, they are filling the void, that the US is left with foreign aid, they’re going out there and filling the void that we’re leaving by, you know, trying to.[00:30:00]

The harder of a time we give all these other foreign countries, the more they’re gonna look to whatever alternative seems more viable. And if we keep running around, pissing everybody off, then they’re just gonna stop and, and start doing something that is more independent from us than it ever has been before.

Which ties back to what you just said about, uh, you know, every, if you look at everybody’s energy independence, it is increasing. Because they’re doing more to deploy, whether it’s renewable energy technologies or just more domestic consumption of, of resources, there is less and less of an energy trade imbalance than there ever has been in the history of the world.

And that’s only gonna continue. And at the end of the day, you’re, eh. You know, everybody’s going to have energy and electricity, self-sufficiency and independence, and if we don’t continue to do what we have done [00:31:00] as, as a country, then China is gonna dominate the, the, the world. So. You know, this is why I keep saying it’s a choice.

Like their government makes a choice to support their industry because they see this as the wave of the future, and they’ve made a choice. We are making a different choice, and I think it’s the wrong one.

Allen Hall 2025: I think this is only like for gonna last for a year or two. Like it. The economics will not play out in the way that the United States wants it.

Well, that’s gonna do for this week’s Uptime Wind Energy Podcast. Uh. Prince Harry and and Phil are gonna have a good time over the 4th of July, and we’ll see you here next week on the Uptime Wind Energy Podcast.

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How to Go Solar in Australian Apartments for 2025

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For many Australians, a home is more than just a place to live. It’s their most valuable asset and a powerful long-term investment for the future.  

However, in Australia, maintaining and upgrading your property not only enhances your lifestyle but can also protect and even increase its market value significantly. 

One such upgrade that’s gaining popularity is solar energy. According to recent surveys, 85% of Australians believe that installing solar panels can increase property value.  

Also, the data backs it up: homes with solar systems can sell up to 20% faster than those without, and in some cases, each kilowatt of solar installed can add up to $6,000 to the resale value. 

However, the actual impact of solar panels on property value depends on several factors, including the type and quality of the solar panel system, installation costs, your geographical location, and local energy prices. 

Whether you’re planning to sell or not, installing solar panels can be a smart investment. It lowers energy bills, reduces your carbon footprint, and increases your home’s appeal to environmentally conscious buyers. 

Curious whether solar panels really boost property value and how they do it? 

Let’s dive in!

Why Australians Prefer Solar Panels on Their Properties?

As Australia becomes more focused on sustainability due to climate change issues, many homeowners are embracing solar power. According to the Clean Energy Regulator, one in four Australian homes has solar panels installed on their roofs.  

Solar installations have increased these homes’ resale values, making them not only an environmental choice but also a strategic financial investment for homeowners. 

Here are some compelling reasons why solar can be a game-changer for Australian households: 

  1. The country’s record‑breaking sunshine

Several Australian cities, such as Brisbane, Victoria, Queensland, Perth, and much of regional NSW, bask in consistent sunshine.  

These weather conditions, with high sun exposure, make solar panels highly efficient, generating a huge amount of power throughout the year. 

  1. Australia’s rising electricity costs

In Australia, rising electricity costs make the case for solar stronger than ever. Solar offers a way to gain control over energy expenses, ensuring energy independence.   

Many homeowners see this energy transition as an effective and affordable solution. 

  1. Extensive Government support for renewable energy

The Australian government has introduced several state and federal incentives, like solar feed‑in tariffs, interest‑free loans, discounts, and home battery rebate schemes.  

These financial aids have driven the solar adoption rate, reducing the high upfront cost of installing solar panels. 

  1. Growing Environmental responsibility

Australians are growing increasingly aware of climate change, pushing them toward greener lifestyles and home ownership strategies. 

This consciousness ultimately reduces the carbon emission rates, bringing savings in energy costs and building community resilience.  

The Financial Factor: How Solar Translates More in Your Pocket?

How Solar Translates to More in Your Pocket

Yes, solar panels elevate your property’s value. But this value boost doesn’t come from simply installing a few panels on the roof.  

The type of system, its cost, your home’s location, and even the local climate all play critical roles in determining the financial return on your solar investment. 

Here’s how solar adds to property values: 

  • Solar Panel Lower ongoing costs 

Houses with solar panels can save thousands per year on their electricity bills. Depending on system size, consumption pattern, and geographical location, the bills can drop up to 70–80 % when solar is used. 

  • Adding Solar Systems to Properties can Boost the Selling Price. 

Australian data suggests properties with solar panels can sell for up to 3 to 4 % more, especially if the installation is owned instead of leased.  

For example, on a $900,000 home, the owner can get $27,000 to $36,000 additional resale value. 

  • Promotes Faster Sales 

Green-certified and energy‑efficient smart homes often require less time and are valued by buyers. They are aesthetically pleasing and easy to maintain, which attracts more clients, making the selling process easier.  
 

Beyond the Numbers: The Intangible Appeal of Solar

Undoubtedly, Australia’s sun‑soaked landscapes make it a dream canvas for solar energy. From creating jobs, enhancing energy security, to cutting power bills, the tangible benefits are well known to all. 

But even when dollars and cents matter, solar offers much more than that! So, let’s explore why solar is more than just a smart financial investment. 

Aesthetic and community status 

Solar panels aren’t just functional; they reflect modern living, independence, and care for the environment. In eco-conscious communities, they make a strong impression that resonates well. 

Solar panels with batteries Offer Peace of mind 
Installing Solar panels reduces your heavy dependence on the grid. During long power outages, homes with solar, especially those with battery storage, can keep some lights and essential appliances running. 

For some, solar batteries offer even greater freedom, making it possible to live comfortably off the grid and maintain energy independence year-round. 

The solar system makes life more convenient 

Worried about peak-time rates every time while tapping the switch? 

Solar, especially when combined with smart meters or home automation, can bring a more streamlined lifestyle where you don’t have to be stressed about your energy use. They give instant readings and update everything from time to time.  

A Real Estate Bonus 

For real estate professionals, solar panels are a headline attraction that can draw attention even among buyers unfamiliar with solar tech. 

Though harder to quantify, these non‑financial values enhance the buying and ownership experience for many Australians. Also, these future-ready homes align with Australia’s 2050 net-zero strategy and energy-positive living.

How Much Does Solar Increase Property Value?

According to a survey, the number of solar panels installed on a home’s rooftop increases its value. Each 1kW of solar installed can increase the value of your home by up to $6,000, and a 5kW installation can add $29,000.  

As said before, Solar panels can add 3 to 4% to the value of your property. For example, if your home is worth $300,000, the increase in value could range from $9,000 to $12,000.  

So, how much will a 6.6 kW and a 10-kW solar panel system save you? 

  • A 6.6kW solar panel system can save you $1,000–$2,000 annually, equating to $20,000–$40,000 in added home value over time. 
  • A 10-kW system can save around $4,000/year, further supporting high-value appreciation. 

Aside from the monetary value added by solar panels, properties with solar panels sell up to 20% faster than those without.  

While the initial investment is high, solar panels can significantly reduce, if not eliminate, your monthly utility bills. These ongoing energy savings are an excellent addition to increased property value.   

However, you can use an STC calculator or seek professional help if you’re wondering how much money you could save by installing solar panels. 

Key Factors to Consider Before Purchasing a Home with Solar Panels

Buying a home with solar panels can be a smart move, but only if you know what to look for. Behind the promise of clean energy and lower bills, there are several underlying things that can make or break your investment.  

Here’s what you need to know to avoid any issues and make the most of your solar-powered home. 

  1. Age of the Solar System: It’s important to know how old the solar system is, as this can impact both performance and remaining lifespan. 
  2. Type of Inverter Used: Understanding what kind of inverter is used helps assess efficiency, reliability, and potential maintenance needs. 
  3. Installation Details: Find out who installed the panels to ensure the system was set up by a reputable and certified installer. 
  4. Warranty Coverage: Confirm whether the solar panels, inverter, and other components are still under warranty, and if those warranties are transferable to new homeowners. 
  5. Energy Production: Calculate how much energy the system produces annually to determine if it meets the home’s electricity needs. 
  6. Battery Storage: Check whether the system includes a battery, which can provide backup power and increase energy independence. 
  7. Ownership Structure: Determine whether the solar panels are owned or leased, because this affects costs, responsibilities, and potential savings. 
  8. Cost Implications: Evaluate whether you’re paying a premium for the solar system as part of the home’s purchase price, and whether the energy savings justify that cost.
  9. Eligibility for Tax Incentives: Before purchasing a home with an existing solar system, clarify whether you’ll be eligible for any tax credits or local incentives.  

Maximize Your Home’s Value with Solar: 6 Simple Steps to Sell Smarter!

In Australia, if you’re planning to sell your solar-powered home in 2025, there are a few simple steps you can take to boost its appeal and get the best possible return. 

So, are you ready to cash in on your solar investment? Here’s how to maximize its value! 

Step 1: Gather all the necessary documentation. 

This includes installation reports, capacity details, warranty contracts, and inverter/service records. 

Step 2: Highlight ownership 

Make it clear that you own the panels with authentic supporting documents. Ensure the buyer that it’s not leased. 

Step 3: Update or expand if needed 

Consider adding panels, inverters, or syncing with a battery, especially if your existing system is small or aged. 
Step 4: Offer a pre‑sale inspection 

Provide a basic electrician or installer to check with your customers, ensuring everything is functional and worry‑free. It’s a great way to attract buyers.

Step 5: Show the total running‑cost savings documentation 
Show buyers the last 6–12 months of electricity bills alongside solar production statistics. Explain the benefits of solar panels clearly and highlight the savings.

Step 6: Work with a Knowledgeable Agent 

Choose a real estate agent who understands the value of solar panels and can effectively communicate these benefits to potential buyers.  

A Bright Future for Solar Homes in Australia 2025

In the end, it all adds up to one clear outcome that solar panels are a fantastic investment for Australian homeowners. It’s not just for personal energy savings but also for enhancing property value.  

So, if you’re on the fence about going solar, consider this: you’re not just installing panels on your roof; you’re adding a valuable asset. 

But remember! For buyers, verifying system ownership, warranties, and performance data is key. On the flip side, for sellers, leveraging documentation, installations, and green‑savvy marketing can maximize profit. 

Want More Help? Talk to Cyanergy Today!

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The post How to Go Solar in Australian Apartments for 2025 appeared first on Cyanergy.

How to Go Solar in Australian Apartments for 2025

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GE 18 MW Turbine, Nordex Revives Iowa Facility

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GE 18 MW Turbine, Nordex Revives Iowa Facility

Nordex USA has reopened its wind turbine plant in Iowa, while Alliant Energy plans to add up to one gigawatt of wind generation in the state. GE Vernova’s 18 megawatt turbine has been approved for testing and the UK has greenlit the 1.5 gigawatt Mona Offshore Wind Farm.

Sign up now for Uptime Tech News, our weekly email update 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 FacebookYouTubeTwitterLinkedin and visit Weather Guard on the web. And subscribe to Rosemary Barnes’ YouTube channel here. Have a question we can answer on the show? Email us!

Good news for Iowa’s clean energy sector.

Nordex USA celebrated the reopening of its wind turbine plant in West Branch, Iowa on Tuesday. The plant now employs more than one hundred workers. They’re producing the company’s first U.S.-made turbines.

Manav Sharma is Nordex’s North American C.E.O. He says the company is committed to Iowa for the long term.

The plant had been closed since twenty thirteen. Nordex bought the facility in twenty sixteen and spent months retrofitting it. The plant will produce parts for five-megawatt turbines. Production capacity is planned to exceed two point five gigawatts annually.

The reopening comes despite federal debates about renewable energy tax credits.

Iowa Governor Kim Reynolds noted that sixty six percent of Iowa’s power comes from renewable energy. That’s the highest percentage in the US.

Alliant Energy also has big plans for wind power in Iowa.

The company filed a plan with the Iowa Utilities Commission to add up to one gigwatt of wind generation.

Mayuri Farlinger is president of Alliant’s Iowa energy company. She says expanding wind energy will help them deliver reliable and cost-effective power to customers.

Alliant plans to own and operate the new wind projects. The company expects the projects to create construction jobs and provide payments to landowners. They’ll also generate new tax revenue for counties where the turbines are built.

The Iowa Utilities Commission is expected to make a decision in the first quarter of twenty twenty six.

Norway is testing the one of world’s biggest wind turbine.

Norwegian regulator N.V.E. approved GE Vernova subsidiary Georgine Wind plans for an eighteen-megawatt turbine in the municipality of Gulen.

NVE says this is the largest wind turbine ever approved in Norway. It’s also the first to be licensed inside an existing industrial area.

The turbine will have a rotor diameter of up to two hundred fifty meters. The maximum tip height will be two hundred seventy five meters.

The turbine will undergo testing for five years before switching to standard commercial operation for another twenty five years.

The United Kingdom has approved its largest Irish Sea wind farm.

Energy Secretary Ed Miliband granted planning consent for the Mona offshore wind farm. The project is owned by B.P. and EnBW. It will feature ninety six turbines off northwest England.

The one point five gigawatt project could power more than one million homes with clean energy. It’s expected to begin production between twenty twenty eight and twenty twenty nine.

Miliband says this shows the government is backing builders, not blockers.

B.P. and EnBW are also waiting for approval of a neighboring wind farm called Morgan. That decision is due by September tenth.

The developers have been paying option fees of one hundred fifty four thousand pounds per megawatt per year since January twenty twenty three.

Richard Sandford is B.P.’s Vice President of Offshore Wind. He says this approval brings them closer to delivering large-scale, low-carbon energy critical to the U.K.’s net zero goals.

That’s this week’s top news story.

Join us tomorrow for the Uptime Wind Energy Podcast.

https://weatherguardwind.com/ge-nordex-iowa/

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