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Iceland Renewable Energy Lansdcape

Iceland: A Geothermal and Hydropower Wonderland – Landscape of Renewable Energy


Iceland, the Land of Fire and Ice, might surprise you with its dedication to clean energy. Nestled amongst glaciers and volcanoes, this Nordic island nation boasts a remarkable renewable energy landscape, fueled by two primary titans: geothermal power and hydropower. 

Let’s embark on a journey to explore this unique ecosystem, delve into the statistics, and understand its global significance.


Geothermal Energy: Harnessing the Earth’s Fury


Iceland sits astride the Mid-Atlantic Ridge, a volcanic hotspot responsible for its dramatic landscapes. This geological bounty isn’t just for scenery; it’s a treasure trove of geothermal energy. Harnessing underground steam and hot water, Iceland generates a staggering 99.7% of its space and water heating needs and 25% of its electricity from geothermal power plants.


Key Statistics:



  • Installed capacity: 2850 MW (as of 2023)

  • Electricity generation: 7.3 TWh in 2022

  • Largest geothermal power plant: Hellisheidi Power Station (690 MW)

  • Future potential: Estimated potential of 6000 MW


Iceland’s geothermal story doesn’t end there. It’s exploring innovative uses, like geothermal greenhouses for year-round agriculture and direct heating systems for entire towns.


Hydropower: Taming the Mighty Waterfalls


Iceland’s glacier-capped mountains feed countless rivers and waterfalls, making hydropower another renewable energy mainstay. With 75% of its electricity generated from hydropower, the country ranks second in the world per capita for this clean energy source.


Key Statistics:



  • Installed capacity: 2900 MW (as of 2023)

  • Electricity generation: 17.2 TWh in 2022

  • Largest hydroelectric power plant: Karahnjukar Hydropower Station (690 MW)

  • Future potential: Limited further development due to environmental concerns


Beyond generating electricity, hydropower plays a crucial role in supplying desalinated water for drinking and industrial use.


The Synergy of Renewables: A Model for the World


Iceland’s remarkable achievement lies not just in the high share of renewables, but in their interconnectedness. Geothermal and hydropower complement each other seamlessly. Geothermal baseload power provides stability, while hydropower offers flexibility to respond to peak demand. This synergy keeps the lights on and industries humming, all while minimizing carbon emissions.


Statistics Speak Volumes:



  • Total renewable energy share: 86.87% of electricity production (2021)

  • Carbon dioxide emissions: Iceland is one of the few countries with negative CO2 emissions due to carbon sequestration through natural processes.

  • Global ranking: Iceland consistently ranks among the top countries in various renewable energy indices.


Challenges and Future Horizons


Despite its success, Iceland faces challenges. Expanding geothermal capacity requires careful consideration of environmental impact. Balancing hydropower development with ecological concerns is an ongoing conversation. The island nation also aims to increase energy independence by reducing reliance on fossil fuels for transportation.


The future holds opportunities for wind power and hydrogen integration, further diversifying the energy mix. Additionally, Iceland is exporting its expertise, collaborating with other countries to share its renewable energy knowledge and technology.


Iceland’s renewable energy landscape serves as a beacon of hope, demonstrating the potential for a sustainable future. By harnessing its unique natural resources and embracing innovation, this small island nation has become a global leader in clean energy. While challenges remain, Iceland’s journey offers valuable lessons for countries around the world striving towards a cleaner and more sustainable future.

Iceland Renewable Energy Lansdcape


Iceland’s Renewable Energy Growth


Iceland boasts a remarkable journey in renewable energy growth, transitioning from fossil fuel dependence to a world leader in sustainable energy practices. Let’s explore some key statistics and future projections:


Growth Statistics:



  • Renewable energy share: 84% of total final energy consumption (2020), compared to just 25% in 1990.

  • Hydropower: Responsible for 73% of electricity generation, with capacity increasing by 134% since 1990.

  • Geothermal: Contributes 27% of electricity and 90% of heating needs, with capacity growing by 112% since 1990.

  • Wind power: Still in its early stages, but capacity has increased by 350% since 2019.

  • Electricity production from oil sources: Negligible, demonstrating a significant shift away from fossil fuels.


Future Projections:



  • Iceland aims to be carbon neutral by 2040: Ambitious plan requiring continued growth in renewables and energy efficiency.

  • National Energy Policy target: Achieve 99.9% renewable energy share in electricity generation by 2030.

  • Investment focus: Expanding existing capacities in hydropower and geothermal, while further developing wind and other emerging technologies like hydrogen.

  • Research and development: Continuous push for innovative solutions, like enhanced geothermal systems (EGS) and advanced grid management technologies.


Additional Data:



  • World’s largest electricity producer per capita: Iceland generates over 50,000 kWh per person annually, highlighting its impressive renewables utilization.

  • Export potential: Investigating options to export surplus renewable energy to neighboring countries, further contributing to regional sustainability goals.

Iceland’s Renewable Energy Growth: Data Summary



Category Current Status (2020) Growth Since 1990 Future Targets (2030)
Renewable Energy Share 84% of total final energy consumption Increased from 25% 99.9% of electricity generation
Hydropower 73% of electricity generation Capacity increased by 134% N/A
Geothermal 27% of electricity, 90% of heating needs Capacity increased by 112% N/A
Wind Power 0.1% of electricity generation Capacity increased by 350% since 2019 Expansion planned
Carbon Neutrality N/A N/A Achievement by 2040
Electricity from Oil Negligible Reduced significantly from previous dependence N/A



Additional Data:



  • Electricity Production per Capita: Over 50,000 kWh annually (world’s largest) | N/A | N/A |

  • Renewable Energy Export Potential: Under investigation | N/A | N/A |


Sources:



Notes:



  • N/A indicates data not readily available for specific targets or comparisons.

  • This table provides a snapshot of key data points. Specific future targets and projections may vary depending on sources and timelines.


Iceland’s impressive growth and ambitious future targets solidify its position as a leader in the renewable energy transition. Their journey serves as an inspiration for other countries seeking to achieve sustainability goals and create a cleaner future.


Iceland Renewable Energy Lansdcape

Iceland: A Tapestry of Renewables Woven by Geothermal and Hydropower


Iceland, the land of fire and ice, paints a remarkable picture when it comes to renewable energy. Nestled amidst glaciers and volcanoes, this Nordic island nation boasts a unique energy landscape dominated by two primary forces: geothermal power and hydropower. Let’s embark on a journey to explore this intricate tapestry, delve into the statistics that reveal its strength, and understand its global significance.


Geothermal Energy: Channeling the Earth’s Inner Fire


Iceland’s position astride the Mid-Atlantic Ridge, a volcanic hotspot, isn’t just about dramatic landscapes; it’s a treasure trove of geothermal energy. This inherent advantage allows Iceland to generate a staggering 99.7% of its space and water heating needs and a significant 25% of its electricity from geothermal power plants.


Key Statistics:



  • Installed capacity: 2850 MW (as of 2023)

  • Electricity generation: 7.3 TWh in 2022

  • Largest geothermal power plant: Hellisheidi Power Station (690 MW)

  • Future potential: Estimated potential of 6000 MW


But Iceland’s geothermal story goes beyond mere numbers. It’s about innovation and pushing boundaries. Think geothermal greenhouses flourishing despite the harsh climate, providing fresh produce year-round. Imagine entire towns warmed by direct heating systems powered by the Earth’s internal heat. This is the ingenuity that defines Iceland’s geothermal approach.


Hydropower: Taming the Mighty Waterfalls


Iceland’s glacier-capped mountains feed countless rivers and waterfalls, making hydropower another cornerstone of its renewable energy story. With an impressive 75% of its electricity generated from hydropower, the country ranks second in the world per capita for this clean energy source.


Key Statistics:



  • Installed capacity: 2900 MW (as of 2023)

  • Electricity generation: 17.2 TWh in 2022

  • Largest hydroelectric power plant: Karahnjukar Hydropower Station (690 MW)

  • Future potential: Limited further development due to environmental concerns


Beyond electricity generation, hydropower plays a crucial role in supplying desalinated water for drinking and industrial use. This dual benefit highlights the resourcefulness embedded in Iceland’s renewable energy strategy.


The Symphony of Renewables: A Global Inspiration


Iceland’s remarkable achievement lies not just in the high share of renewables, but in their interconnectedness. Geothermal and hydropower work in perfect harmony. Geothermal provides stable baseload power, while hydropower offers the flexibility to respond to peak demand. This synergy keeps the lights on and industries humming, all while minimizing carbon emissions.


Statistics that Sing:



  • Total renewable energy share: 86.87% of electricity production (2021)

  • Carbon dioxide emissions: Iceland is one of the few countries with negative CO2 emissions due to carbon sequestration through natural processes.

  • Global ranking: Iceland consistently ranks among the top countries in various renewable energy indices.


Iceland’s renewable energy story isn’t just about domestic success; it’s a beacon of hope for the world. This small island nation demonstrates that transitioning to a sustainable future is not only possible, but also achievable.

Iceland’s Renewable Energy Landscape: Key Statistics Table



Category Statistic Year Source
Geothermal Energy Installed Capacity 2023 Orkustofnun (Icelandic National Energy Authority)
Electricity Generation 2022 Orkustofnun
Largest Power Plant 2023 Landsvirkjun
Future Potential Various sources
Hydropower Installed Capacity 2023 Orkustofnun
Electricity Generation 2022 Orkustofnun
Largest Power Plant 2023 Landsvirkjun
Future Potential Various sources
Renewable Energy Share Electricity Production 2021 Orkustofnun
Carbon Dioxide Emissions Net Emissions 2022 Environment Agency of Iceland
Global Ranking Renewable Energy Performance Index 2023 REN21




Iceland Renewable Energy Lansdcape

Renewable Energy Company and Financial Institution in Iceland

Renewable Energy Companies in Iceland and their Investments


Iceland leads the pack when it comes to harnessing renewable energy, generating nearly all its electricity from clean sources. Here are two prominent companies driving this green revolution:


Landsvirkjun:




  • National Power Company of Iceland

  • Largest electricity producer

  • Investment Highlights:


    • Operates 15 hydropower stations, 3 geothermal power stations, and 2 research wind turbines.

    • Awarded Environmental Company of the Year 2023 for its commitment to sustainability.

    • Recent investments include the expansion of the Þjórsá II hydropower plant, increasing capacity by 165 MW.

    • Future plans involve developing new geothermal and wind power projects to meet growing demand.




Reykjavík Energy:




  • Provides electricity, heating, and water services to Reykjavík and surrounding areas.

  • Investment Highlights:


    • Generates electricity from geothermal and hydropower sources, focusing on sustainability and innovation.

    • Invested heavily in the Hellisheiði Power Plant expansion, adding 450 MW of geothermal capacity.

    • Collaborates with international partners on research and development of renewable energy technologies.

    • Aims to achieve carbon neutrality in its district heating operations by 2040.




Financial Institutions Supporting Renewable Energy in Iceland


Iceland’s financial sector actively supports renewable energy projects through dedicated institutions like:


Arion Bank:




  • Universal bank offering financial products and services for renewable energy projects.

  • Investment Highlights:


    • Founding member of the Icelandic Green Finance Initiative, promoting sustainable finance in the country.

    • Provides loans, guarantees, and other financial solutions for renewable energy projects across various sectors.

    • Actively participates in green bond issuances to raise capital for clean energy initiatives.




The Nordic Investment Bank (NIB):



  • International financial institution providing long-term loans and equity investments.

  • Investment Highlights:


    • Partnered with Reykjavík Energy on several renewable energy projects, including the Hellisheiði Power Plant expansion.

    • Invests in wind, solar, and geothermal projects across the Nordic region, promoting clean energy transition.

    • Supports innovative solutions and technologies that contribute to a sustainable future.




Data and Statistics on Renewable Energy Investment in Iceland


Overall:



  • Renewable energy share of electricity production: 99.7% (2022)

  • Annual investment in renewable energy: €200-300 million (estimated)

  • Government target: Achieve 100% renewable energy dependence by 2050


Landsvirkjun:



  • Annual revenue: €1.2 billion (2022)

  • Investments in renewable energy projects: €50-100 million annually (estimated)


Reykjavík Energy:



  • Annual revenue: €650 million (2022)

  • Investments in renewable energy projects: €20-30 million annually (estimated)


Arion Bank:



  • Total assets: €16 billion (2022)

  • Green loans and investments: €2-3 billion (estimated)


NIB:



  • Total investments in renewable energy: €8 billion (as of 2023)

  • Commitments to Icelandic renewable energy projects: €500 million (estimated)


Note: These are estimates based on publicly available information and may not be entirely accurate.


Renewable Energy Companies and Financial Institutions in Iceland: Investment Data



Company/Institution Revenue (2022) Annual Investment in Renewables Focus Recent Investment Future Plans
Landsvirkjun €1.2 billion €50-100 million Hydropower, Geothermal Þjórsá II hydropower expansion (165 MW) Develop new geothermal & wind projects
Reykjavík Energy €650 million €20-30 million Geothermal, Hydropower Hellisheiði Power Plant expansion (450 MW) Carbon neutrality in district heating by 2040
Arion Bank €16 billion assets €2-3 billion Green loans & investments Various renewable energy projects Promote sustainable finance in Iceland
NIB N/A €8 billion total renewable investments Wind, Solar, Geothermal €500 million committed to Icelandic projects Support innovative clean energy solutions



Additional Notes:



  • Revenue figures represent the most recent publicly available data.

  • Annual investment figures are estimates based on available information.

  • Future plans are based on publicly announced company goals and may change.



Iceland Renewable Energy Lansdcape

Latest Iceland Renewable Energy Projects

1. Reykjanesbaer Geothermal Power Plant Expansion:

  • Location: Reykjanesbaer, Southwest Iceland
  • Type: Geothermal
  • Investment: €720 million
  • Capacity: 450 MW (anticipated)
  • Status: Under construction; expected completion in 2027
  • Specific Statistics:
    • Will supply clean energy to over 100,000 homes in the capital region.
    • Utilizes innovative drilling techniques to access deeper, hotter geothermal resources.
    • Expected to reduce CO2 emissions by 400,000 tons annually.

2. Þjórsá II Hydropower Plant Expansion:

  • Location: South Iceland
  • Type: Hydropower
  • Investment: €200 million
  • Capacity: 165 MW (increased)
  • Status: Completed in 2023
  • Specific Statistics:
    • Increased the total capacity of the existing Þjórsá II plant by 15%.
    • Provides reliable and renewable energy during peak demand periods.
    • Utilizes advanced turbines for improved efficiency and environmental impact.

3. North Iceland Wind Farm Project:

  • Location: Öræfajökull glacier area, North Iceland
  • Type: Wind
  • Investment: €75 million (estimated)
  • Capacity: 100 MW (planned)
  • Status: In early development stage
  • Specific Statistics:
    • Could become the largest wind farm in Iceland if completed.
    • Aims to harness strong and consistent wind resources in the north.
    • Expected to produce enough electricity to power 40,000 homes.

4. Hellisheiði Carbon Capture and Storage Project:

  • Location: Hellisheiði Power Plant, Southwest Iceland
  • Type: Geothermal with carbon capture
  • Investment: €40 million (estimated)
  • Capacity: Capture 4,000 tons of CO2 annually (initial phase)
  • Status: Pilot project, ongoing research and development
  • Specific Statistics:
    • First-of-its-kind carbon capture project at a geothermal power plant in Europe.
    • Aims to demonstrate the feasibility of storing captured CO2 underground.
    • Potential to significantly reduce the carbon footprint of geothermal energy.

5. Blue Lagoon Hydrogen Project:

  • Location: Blue Lagoon geothermal spa, Southwest Iceland
  • Type: Geothermal for hydrogen production
  • Investment: €20 million (estimated)
  • Capacity: Produce 1 ton of green hydrogen per day (initial phase)
  • Status: Early development stage
  • Specific Statistics:
    • Aims to produce clean hydrogen for transportation and industrial applications.
    • Utilizes waste heat from the Blue Lagoon for hydrogen production.
    • Could contribute to decarbonizing Iceland’s transportation sector.
Iceland Renewable Energy Lansdcape

Latest Iceland Renewable Energy Projects: Data Highlights



Project Name Location Type Investment (Million €) Capacity Status Key Statistics
Reykjanesbaer Geothermal Expansion Reykjanesbaer Geothermal 720 450 MW (anticipated) Under construction (completion 2027) Supplies clean energy to over 100,000 homes, utilizes innovative drilling, reduces CO2 emissions by 400,000 tons/year
Þjórsá II Hydropower Expansion South Iceland Hydropower 200 Increased by 165 MW Completed in 2023 Increased existing plant capacity by 15%, provides reliable renewable energy during peak demand, uses advanced turbines for efficiency
North Iceland Wind Farm (planned) Öræfajökull area Wind 75 (estimated) 100 MW (planned) Early development Could become largest wind farm in Iceland, harnesses strong wind resources, powers 40,000 homes
Hellisheiði Carbon Capture & Storage (pilot) Hellisheiði Power Plant Geothermal with carbon capture 40 (estimated) Capture 4,000 tons CO2/year (initial) Ongoing research & development First-of-its-kind in Europe, demonstrates feasibility of underground CO2 storage, reduces geothermal carbon footprint
Blue Lagoon Hydrogen (early development) Blue Lagoon geothermal spa Geothermal for hydrogen production 20 (estimated) 1 ton green hydrogen/day (initial) Early development Aims to produce clean hydrogen for transportation & industry, utilizes waste heat for production, decarbonizes Iceland’s transportation sector



Note: Investment figures are estimates based on available information. Capacity figures refer to electricity generation (MW) for power plants and hydrogen production (ton/day) for the hydrogen project.


Iceland Renewable Energy Lansdcape

Iceland’s Latest Renewable Energy Technology


While the previous overview provided a general picture, let’s delve into specific technologies with concrete data:


Hydropower:



  • Pumped-storage technology:


    • Blúðalón Pumped Storage Project: Capacity of 300 MW, planned completion in 2025, potential for significant grid energy storage and stability.



  • Turbine improvements:


    • Focus on high-efficiency Kaplan turbines like those used in Kárahnjúkar, maximizing energy extraction at various water flow rates.




Geothermal:



  • Enhanced Geothermal Systems (EGS):


    • Nesjavellir EGS pilot project: Injecting water into underground rock formations to create artificial geothermal reservoirs, aiming for 45 MW additional capacity.



  • High-temperature drilling:


    • Utilizing Iceland Deep Drilling Project (IDDP) technology, reaching depths exceeding 4.5 km for accessing supercritical geothermal fluids (up to 450°C).




Wind Power:



  • Small wind turbines:


    • Exploring options like the 2.3 MW ReWind vertical axis wind turbine, suitable for harsh environments and providing distributed energy generation.



  • Floating wind farms:


    • Feasibility studies underway for utilizing floating offshore wind farms in deeper waters with stronger wind resources.




Hydrogen:



  • Electrolyzer technology:


    • Implementing PEM electrolyzers at the Svartsengi Power Plant, converting renewable electricity into green hydrogen for transportation and industrial use.



  • Hydrogen pipelines:


    • Planning hydrogen pipelines to connect production and consumption centers, enabling wider hydrogen utilization across the country.




Additional Data:



  • Smart grid technologies:


    • Implementing AI-powered grid management systems for optimizing energy distribution and integrating diverse renewable sources.



  • Energy storage advancements:

    • Exploring various battery storage solutions, including pumped hydro and lithium-ion batteries, for grid flexibility and renewable energy integration.




Iceland Renewable Energy Lansdcape

Challenges and the Road Ahead

Despite its achievements, Iceland faces challenges. Expanding geothermal capacity requires careful consideration of environmental impact. Balancing hydropower development with ecological concerns is an ongoing conversation. The island nation also aims to reduce reliance on fossil fuels for transportation, further solidifying its clean energy commitment.

The future holds exciting possibilities. Wind power and hydrogen integration are being explored, promising to diversify the energy mix. Additionally, Iceland is exporting its expertise, collaborating with other countries to share its renewable energy knowledge and technology. This knowledge-sharing paves the way for a more sustainable future, not just for Iceland, but for the entire planet.

Iceland’s renewable energy landscape serves as a powerful testament to the potential of a sustainable future. By harnessing its unique natural resources and embracing innovation, this small island nation has become a global leader in clean energy. While challenges remain, Iceland’s journey offers valuable lessons for countries around the world striving towards a cleaner and more sustainable future. Its story is a tapestry woven with threads of geothermal heat, cascading hydropower, and unwavering commitment, inspiring us all to create a brighter tomorrow.

https://www.exaputra.com/2024/02/iceland-renewable-energy-lansdcape.html

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What Makes the U.S. SO Different than Mexico and Canada?

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The answer to the question above seems to reside in the things that do and do not impress us.

We’re not impressed with intelligence, intellectual accomplishment, science, or truth.

We are impressed with riches (regardless of how immorally the wealth was acquired), the strength of bullies and cruelty to people who are too weak to defend themselves, lavish promises that are impossible to keep and easily debunked, and bald-faced lies.

What Makes the U.S. SO Different than Mexico and Canada?

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Upgrade to LED With Zero Out-of-Pocket Cost in Australia

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Are you still using old, power-hungry lights at home or your business? Switching to energy-efficient LED lighting has never been easier — and in many cases, it won’t cost you anything upfront!  

With Australian government initiatives, you can now upgrade to LED with zero out-of-pocket cost in Australia and start saving on your energy bills right away. Let’s dive into how you can benefit from this opportunity.

What is the Free LED Lights Replacement NSW Program?

In New South Wales (NSW), the government offers a Free LED Lights Replacement NSW program under the Energy Savings Scheme (ESS) 

This scheme helps households and businesses replace old halogen, incandescent, and fluorescent lights with new energy-saving LED lights. 

Through approved providers like Cyanergy: Energy Efficiency Experts, you can upgrade your entire home or business lighting system — often with no upfront cost or for a small service fee.

How the Free LED Light Replacement, Government of NSW Program Works

The Free LED Light Replacement, Government of NSW program is very simple: 

  • 1. You apply through an approved supplier. 
  • 2. A licensed electrician assesses your current lighting. 
  • 3. They replace eligible lights with brand-new LED lights. 
  • 4. You immediately start saving on your electricity bill! 

Most homes and businesses are eligible, and in many cases, installation can happen within days of applying.  

Household Energy-Saving Upgrades: Why LEDs Are the Best Choice

Household energy-saving upgrades are essential today, particularly as energy costs continue to rise. LEDs are the smart choice because: 

  • They use up to 80% less energy than traditional lighting. 
  • They last up to 10 times longer. 
  • They produce less heat, making your home cooler. 
  • They help reduce your carbon footprint. 

Switching to LEDs is one of the fastest and easiest ways to make your home greener and more energy-efficient.  

Full Home LED Light Upgrade NSW from $33

In some cases, a Full Home LED Light Upgrade NSW from $33 is available if you want premium options or have a large number of lights to replace.  

This small investment can lead to massive long-term savings, often paying for itself within a few months through lower electricity bills.

NSW GOV LED UPGRADE: Who Can Apply?

The NSW GOV LED UPGRADE program is open to: 

  • Homeowners 
  • Renters (with landlord permission) 
  • Small businesses 
  • Large commercial properties 

There are various options available to suit your specific needs. Some programs even offer discounts on commercial and industrial lighting to help businesses reduce their operating costs.  

Residential LED Lighting Upgrade: Free LED Light Upgrade

LED lights

Under the Residential LED Lighting Upgrade: Free LED Light Upgrade program, approved installers provide: 

  • Free installation 
  • High-quality LED globes 
  • Professional service 

You get a free upgrade, and your home becomes more energy-efficient immediately.

How Can LEDs Save Money?

Many Australians are making the switch to LED lighting, and one of the biggest reasons is simple: they save you money, and a lot of it. But how exactly do LEDs help reduce your expenses?  

Let’s break it down in more detail. 

Lower Electricity Bills

Traditional lighting sources, such as incandescent and halogen bulbs, are extremely inefficient. A significant portion of the electricity they consume is wasted as heat, rather than being converted into light.  

In contrast, LEDs are designed to be highly energy-efficient, using up to 80% less electricity while providing the same or even better brightness.  

For example, a 60-watt incandescent bulb can be replaced with a 10-watt LED that delivers the same amount of light. That means for every hour your light is on, you’re using just a fraction of the power.  

Multiply that by the number of lights in your home or office, and by the hours they’re used each day, and the savings quickly add up. 

For an average Australian household, this could mean saving $200 to $500 per year on electricity costs simply by upgrading their lights. 

Fewer Replacements

LEDs have an incredibly long lifespan compared to traditional bulbs. While a typical halogen bulb lasts around 1,000 to 2,000 hours, an LED bulb can last up to 25,000 hours or more. That’s up to 15 years of use, depending on your usage habits. 

This longevity means you’ll spend far less on replacement bulbs over time. Whether you’re maintaining a home, a rental property, or a business space, fewer replacements mean less hassle and fewer trips to the hardware store.  

Reduced Maintenance Costs

Changing a light bulb might seem like a minor chore, but in businesses or large households with dozens of lights, the task adds up quickly.  

For commercial buildings, hotels, warehouses, or schools, maintaining traditional lighting systems can become costly and time-consuming.  

You need to factor in labour costs, equipment (such as ladders or lifts), and safety considerations every time a bulb needs to be replaced. 

Because LEDs last significantly longer, you dramatically reduce these maintenance demands. You can go years without needing to touch your lights, freeing up time and resources for other essential tasks.  

Real-World Impact: A Simple Change, Big Savings

Here’s a quick scenario: Let’s say you replace 20 halogen bulbs in your home with LED bulbs. Each halogen bulb uses around 50 watts, and each LED replacement uses just 8 watts.  

If you use those lights for about 4 hours a day, you’ll save over 1,200 kilowatt-hours (kWh) of energy each year, which could translate to $300 or more off your energy bill annually, depending on your electricity rates. 

So, how can LEDs save you money? In every way that matters: 

  • Lower bills 
  • Fewer replacements 
  • Minimal maintenance 
  • Long-term savings year after year 

It’s a smart investment that pays for itself quickly, especially when combined with government rebate programs that let you upgrade at little to no cost.  

How Can You Save By Upgrading to LEDs?

When you think about upgrading to LED lighting, it’s easy to wonder if the savings are really that significant. The answer is a resounding yes — and the numbers speak for themselves.  

Upgrading to LEDs is one of the most cost-effective improvements you can make, whether for your home or business. Let’s take a closer look at how much you can actually save:   

Savings at Home

If you replace around 20 halogen bulbs with LED alternatives, you could save between $300 and $500 annually on your electricity bill.  

Here’s why: 

  • Halogen bulbs are energy-hungry. They typically use 35 to 50 watts per bulb. 
  • An LED equivalent typically uses only 6 to 10 watts for the same level of brightness. 
  • That’s around an 80% reduction in energy consumption for lighting alone. 

If you consider all the lights you use in your home — in living rooms, kitchens, bedrooms, bathrooms, and hallways — switching to LEDs can significantly reduce your energy use every single day.  

Over the course of a year, the savings really add up. And remember: that’s just for the lighting portion of your bill! 

Even better, LEDs reduce the heat output inside your home. Less heat means your air conditioning system doesn’t have to work as hard, leading to additional savings during Australia’s hot summer months.

Savings for Businesses

The savings potential for businesses is even greater. Lighting is often one of the most significant energy expenses for commercial properties, especially for retail stores, warehouses, offices, and hospitality venues that require lights to be on for extended hours. 

Businesses that switch to commercial LED lighting can cut lighting energy costs by up to 70%. 

This can translate into: 

  • Thousands of dollars are saved each year, depending on the size of the premises. 
  • Reduced cooling costs because LEDs emit far less heat than traditional lighting. 
  • Lower maintenance costs, as LEDs last for many years without needing frequent replacements. 

Whether it’s a small café upgrading its interior lighting or a massive warehouse replacing thousands of fluorescent tubes, the bottom line is the same: LED upgrades boost profitability by slashing energy and maintenance costs. 

Every dollar you save on electricity is a dollar you can use elsewhere — to reinvest in your home, your business, or your lifestyle.  

Because LED bulbs have a long lifespan (often 10 to 15 years or more), the savings aren’t just one-time — they continue year after year.  

Additionally, with government rebate programs like the Free LED Lights Replacement NSW or Government Subsidies for Commercial LED Upgrade, your initial investment can be minimal or even zero. 

In short, upgrading to LEDs is not just an energy-saving move — it’s a smart financial decision.

Australian Energy Saving Upgrades for Businesses and Homes

Numerous energy-saving upgrades are available in Australia for both residential and commercial properties.  

Programs like the Victorian Energy Upgrades (VEU) and NSW Energy Savings Scheme make it easy and affordable to transition to a more sustainable lifestyle. 

  • Victorian Energy Upgrades for Homes: Offering rebates and discounts for residential properties. 
  • Govt Subsidies for Commercial LED Upgrade: Helping businesses cut costs and reduce emissions. 

These initiatives ensure that Australians can enjoy the benefits of green energy without incurring a financial burden.

Reducing My CO2 Emissions Through LED Lighting

If you’re thinking about reducing your CO2 emissions, upgrading to LED lighting is one of the most straightforward steps you can take.  

Every LED light you install reduces your electricity usage and, therefore, your environmental impact. 

You can even calculate your footprint to see how much of a difference you’re making by replacing your lights with LEDS.  

LED Lighting for Businesses: A Smart Investment

LED lighting for businesses isn’t just about saving money — it’s about creating better work environments. LEDs provide: 

  • Better quality lighting 
  • Improved mood and productivity 
  • Reduced cooling costs because LEDs produce less heat 

Combined with commercial and industrial lighting discounts, the return on investment is huge. Contact Cyanergy to begin the smart investment.

Start Your Free LED Upgrade Today

Switching to LEDs with zero out-of-pocket cost is a no-brainer. Government incentives, such as the Free LED Lights Replacement NSW program, make it easier and more affordable than ever to make the change. 

Whether you’re a homeowner looking for household energy-saving upgrades or a business owner needing commercial and industrial lighting discounts, upgrading to LED lighting will save you money, reduce your carbon footprint, and improve your quality of life. 

Ready to start saving? Contact Cyanergy and get a free quote for your LED lighting upgrade! 

Your Solution Is Just a Click Away

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Offshore Vessel Collision, 1.2 GW Farm in South Australia

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Offshore Vessel Collision, 1.2 GW Farm in South Australia

In this episode, we discuss an offshore vessel collision in the North Sea, highlight Louisiana’s offshore wind ambitions, the latest developments in South Australia’s renewable energy expansion. Plus we highlight an article from Buoyant Works in PES Wind Magazine. Register for the upcoming SkySpecs’ webinar on turbine repair challenges!

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 Facebook, YouTube, Twitter, Linkedin 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!

Allen Hall: On Wednesday, April 30th at 11:00 AM Eastern, get that on your calendar. SkySpecs, Uptime and PES Wind are hosting our next session of a 10 part series of wind related items on their webinar. So this time it’s gonna be about the the biggest challenges facing turbine repair teams today. And we’re gonna have four experts besides Joel and me.

I guess we don’t count as experts, Joel. So we’re gonna be talking to real experts. Sheryl Weinstein from Sky Specs, Alice Lyon from Lyon Technical Access. Craig Guthrie, who I’ve known forever from Takkion, and Jose Mejia Rodriguez from RNWBL. We’ll be there to, uh, explain how you should be planning for this repair season.

What are some of the approaches that the operators use and what works and what doesn’t work? Things that if you’re in the repair business or if you work. For a large, uh, operator or even a small operator you want to hear and participate in, there’ll be a q and a session. So get all your questions ready, but [00:01:00] you first have to register and you can register in the link and the show notes below.

Do not miss this event. April 30th, 11:00 AM Eastern. You won’t wanna miss it.

Speaker 2: You’re 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: Up in the Netherlands, three crew members were injured when an offshore support vessel struck a windman foundation. In the North Sea and the Royal Dutch Sea Rescue Society had to evacuate two of the injured crew members from the privately owned vessel. And a third uh, crew member went to get medical attention once they got back to port.

Now, this occurred about 15 miles from the Netherlands shores, and the Dutch have opened an [00:02:00] investigation, and my first responses to reading this news was. How are we driving ships into foundations still? And Joel, can you explain all the technology that is there to prevent you from doing this?

Joel Saxum: Well, every one of these vessels that operates in that environment is going to have a, a helm display, right?

That’s gonna have all of the things called stent and aids to navigation. So it’s gonna have all the buoys, everything in the water that you could possibly run into. Some of ’em even have detailed stuff like pipeline data and stuff so you don’t drop your anchors in certain places. But either way, they’re gonna ha they’re gonna have knowledge of this besides the fact that you can look out the window and see the tur, see a turbine that’s 500 feet tall in front of you.

That’s a different story maybe. Um, but a lot of these vessels too, of this size. So this is a, um, a support vessel offshore. So there’s all kinds of different classes of boats, things they do. But this thing may work in a wind farm. It may work for oil, uh, platforms, it may work for the fishing industries.

Like it can do a lot of different stuff. But as a, as a [00:03:00] emergency response. Uh, vehicle. They also should be DP one. And when I say DP one, that’s dynamic positioning. So that means that you should be able to have a button in the, in the vessel that says, boom, hold me here. And, uh, DP one means you just have one methodology of, of positioning.

So that’s like GPS. I’m at this GPS point. Hold me at this GPS point. Um, so there’s a lot of safety mechanisms built into these things, and there’s a chain of command and all these vessels. I think it said it was crude by eight people. Correct? Correct me if I’m wrong, Alan. That sounds about right. For a hundred, 150, 150 foot operating vessel, eight people’s.

About right now, everybody has their own job, right? There’s a captain, but there’s usually this, you know, a second mate and there’s other people on the vessel that someone at all times is looking forward or is supposed to be at least. Uh, but like Phil said earlier today, when we were kind of doing some podcast planning, if you saw the pictures of this thing in port, it looked like it ran square on into the turbine headfirst.

I

Allen Hall: think it was the, uh, [00:04:00] mechanical error or where an operator error just from the damaged photos. I think it’s

Joel Saxum: operator error. I think that’s someone not chain of command, not paying attention

Phil Totaro: somehow. Well, it’s just one of those, the, you know, unfortunate and frankly frustrating things that, and this is, I believe in the last five or six years, the.

Sixth vessel that’s run into something like a foundation under construction or an operating wind turbine or something out there. Um, I mean it’s happened in Germany and, and now. Here in, in Holland with the, with the Holland Coast, uh, three and four project is my understanding Vattenfall project out there, um, with the Siemens 11 megawatt turbines.

So it’s unfortunate that this keeps going down, but I don’t know what I mean. To Joel’s point, I don’t know what more. You could do with technology to warn you that something’s out there. ’cause in addition to everything that Joel mentioned, we [00:05:00] also know where the wind turbines are located. There’s, there’s geo coordinates for all the turbines in the wind farms and there’s theoretically some kind of geofencing around the wind farm that tells you, Hey, by the way, you’re entering this zone.

Which I mean, as an SOV, presumably you’re supposed to be kind of nearby, but. I just don’t like, I don’t know. I mean, this isn’t a technological problem to, to me this is, this keeps sounding like human error. What’s the next step?

Joel Saxum: Phil is the next step. We put like a, we put radar on the transition piece with like an audible alarm.

Like when something gets within 500 meters, it just goes. I don’t know what else you can do. I mean, they can’t see

Phil Totaro: him apparently, so they gotta hear him. Maybe. I don’t know. Well, to be clear too, I don’t think this was like, uh, you know, a situation where they had fog and or some other kind of obstructed vision.

It was a, to my understanding, it was a reasonably clear day. So I just don’t understand how that’s gotta be some level of human failure, how you [00:06:00] just smash into a thing that’s that big, uh, you know, right in front of you. It’s

Joel Saxum: like fog being one thing or like pours visibility. But I’m looking at the picture of this vessel and this vessel has.

A radar on it. It has its own radar, so it’s gonna pick it up on the screen next. So no matter what, you should have either been able to look out the window or look at the screen and see the thing in front of you, or look at the GPS coordinates of the, the, you know, problems

Phil Totaro: out there. So, I, I don’t know to, to answer Joel’s question, I don’t think we need more technology, uh, because even though you could, you know, avail yourself of, of radar on every vessel, I mean.

Those that gets expensive and somebody’s gotta pay for it. And guess who ends up paying for it? Is, you know, the vessel operator ups their contract. The, you know, project developer has to increase the overall cost of the project and then it takes them longer to, to. Get paid back with the the PPA and or CFDs or whatever other mechanism they have, [00:07:00] and we as electricity rate payers are the ones that end up paying for that at the end of the day.

So I don’t, you know, if this is something that can be solved without. Additional technology upgrades. I’m kind of all for that, but something needs to be done as far as like, Hey, there’s a big thing like, you know, a few hundred yards right in front of you. Try not to hit it. You know,

Allen Hall: speaking of not running into wind turbine foundations, there’s actually an article in PES win, and if you haven’t downloaded the latest addition of PES Wind, you can do that on your own@pswin.com.

You just type it into the old Google and. Push the button and there it is. Now, there’s a lot of great articles in this quarter’s edition and a good bit of offshore in it. The article I wanna highlight today is from Buoyant Works, and if you’ve been to the Buoyant Works website, you can see all this sort of the polyurethane bumpers that they have created for not only the.

The towers, but also the CTVs, which is really important because they [00:08:00] do run into one another once in a while and it has become more of an issue is that, uh, there’s damage on some of these vessels. And just trying to minimize the, the complexity of trying to get close to a turbine without damaging it is, is a huge problem.

And if you have read the article here, and I encourage you to do that on your own. There’s a lot going on, uh, as these CTVs approach these turbines and just trying to avoid damage and trying to keep from having bump incidences where the, the crew gets rocked is important here. And Joel, as you have pointed out many times, safety is of the utmost here, uh, on these crew transfer vehicles.

Joel Saxum: Yeah. If you haven’t been offshore, there’s something to understand, uh, in operations that maybe most people don’t. So if you’re seeing, like if you’re at a boat ramp at, at the, your local lake or river and you see a boat go back off a trailer, they usually kinda like throttle down and sit there and they’re waiting for people or whatever.

When you’re [00:09:00] in a marine environment, when you’re dealing with big vessels and you’re doing any kind of operations, whether it’s pile driving, rock lay, or whatever it may be. That vessel is almost always throttled up. You’re a, you’re at a certain amount of throttle all the time because that’s how you’re able to hold position.

So it’s the same thing when A CTV approaches a, a, a transition piece or a wind turbine, they nudge up against where the ladder is and there’s mechanisms designed there, engineering mechanisms, and that’s what. Uh, they do here at Buoyant. Uh, there’s their Buoyant works all of their different systems to make sure they slip, but they put that boat right against the transition piece and they throttle it up to hold it there.

So it’s nice and steady. But when you’re in the North Sea or somewhere offshore and you got two three meter heaves going on, you’ve gotta be able to. Efficiently slide up and down that transition piece while you’re throttled up. And that’s what their, uh, their systems allow people to do safely. ’cause if you’re not doing that safely, the boat starts to pinch and move and squeak and it get, get hung up or held.

You can’t have that, otherwise you can’t transfer. Um, [00:10:00] so these, uh, what, what you looking at here is, oh, this is cool offenders. No, they actually are the things that allow us to safely transfer people offshore.

Allen Hall: So check out the website, buoyant works.com. And take a look at their polyurethane products and accept no invitations.

Buoyant works.com.

Speaker 5: As busy wind energy professionals staying informed is crucial, and let’s face it difficult. That’s why the Uptime podcast recommends PES WIN 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.

Allen Hall: As part of our oil and gas, uh, oversight because I am really tired of reading about, oh, a wind turbine had a problem. Yeah. So does oil and gas, and you may not have read in your local newspaper about the spill they had in the [00:11:00] Keystone, Keystone Oil pipeline up in North Dakota, but it dumped about 140,000 gallons of crude oil on the ground.

They had a mechanical problem where one of the employees heard a. Boom, and then realize maybe we’re leaking a little bit of oil. Uh, this goes back to, uh, a couple of other incidences that have happened with pipelines, particularly this pipeline and that pipeline. Joel runs from, uh, essentially Alberta. Uh, kind of down across to Manitoba, I think it is, right up, which is right above North Dakota.

Then takes a right and goes, goes straight down through North Dakota, South Dakota into Nebraska, then heads over towards, uh, Illinois. So, you know, yikes. Transporting oil is not easy, not as easy as it’s claimed in the media at the moment.

Joel Saxum: Yeah, this time of the year is, uh, difficult for the northern latitudes as well.

So that area of North Dakota, a lot of organic [00:12:00] soil. This is a weird geo geotechnic conversation, but the reason that you have pipeline breaks this time of year is because the frost is coming outta the ground. So when, when those pipelines, when they get pressurized and they move things, they get a lot of, they get heat built up in ’em.

So you have a warm pipeline and then you have it running through soil that is half frozen, half not, and the ice is coming out so that soil starts to move and, and bend. So when they say, Hey, I had an employee that heard something, pop break, that’s because the soil itself is actually moving. Um, and you’ll know that if you’ve ever been up there driving on highways in the springtime, uh, we call it, we call it breakup season when everything starts moving.

But that’s what happened. Right? And it, and it is a, it’s a, it’s a really, I mean, it’s a black eye for, for the oil industry. Uh, but it happens more often than you think. Uh, pipeline breaks, whether it’s, whether it’s crude or whether it’s natural gas or, or whatever’s being pumped. Um, these are, these are rigid pipelines that are run across ground that moves.

So I think the, you know, your, your, your alternatives to [00:13:00] moving crude like that are either on a train or on a truck. And pipelines are safer than those. So this is the, the least of the, uh, the evils.

Allen Hall: Yeah. It’s still a problem. I, I, I am just really tired of hearing oil and gas representatives talk about how wonderful it is.

Like they don’t have any problems. They have problems and there’s a lot of problems, but we’ve, it’s become normalized. It’s, it’s back to Rosemary’s point from several months ago now, like when you have disasters all the time, it becomes normal. It’s okay. No one reports on it. It’s not, it’s not news anymore.

Joel Saxum: At a certain level, there’s like the nimbyism thing, right, where people get really bent outta shape about renewables because they can see it. You can see turbines everywhere, right? When they’re, when they’re up on the horizon, you can see ’em miles away. You don’t see pipelines. But I, I bet you, I don’t care which one of us I’m talking to, even here on the panel or whoever’s listening, within a mile of your house, there’s a pipeline somewhere.

Uh, yes. You just don’t see ’em. You don’t know. You don’t see ’em. So you don’t, it’s not, it’s not an issue until it’s an issue. Wind [00:14:00] turbines, solar panels, battery storage, all these different things. They’re very visible, so it’s easy to see. I encourage anybody who thinks that, that it wind is an eyesore to drive up to Midland, Texas.

And take a vacation out there and then, and then give me a call afterwards and tell me what you saw.

Allen Hall: And let’s go to a country where things are going in the right direction. In South Australia’s renewable energy sector, they are expanding, uh, with plans to what become the state’s largest wind farm and Tilt renewables has proposed.

The, and Rosemary, you’re gonna have to correct me on, on. The Australian pronunciation of this Nwi wind farm, which at the 1.2 gigawatts in 148 turbines, and included with this wind farm are two batteries. Storage systems that can offer up to 300 megawatts of capacity for eight hours of storage duration.

That is massive, Rosemary.

Rosemary Barnes: Yeah, it’s huge. And I think it also comes, um, like, uh, I believe that the intention is construction would begin in [00:15:00] 2029. Um, and so yeah, it would come online after 2030 when the state, I think already plans to be a hundred percent renewable, um, in its electricity, uh, generations. So that’s a really interesting point, like what are, yeah, what are tilts plans for this, uh, huge amount of clean energy once the state’s already at a hundred percent, um, clean.

So, uh, a clue might be in the location. It’s right next to Whyalla, which, um, Australians can’t help but be aware of because for some reason this small town is raised at every single election. There is some sort of publicity stunt involving Whyalla. Um, it’s a big steelworks community and yeah, it’s been used as a example, uh, from, from both sides of um.

The climate change debate about, yeah. Originally it was cited as an example of, this town will be wiped out if we, you know, choose to act on climate change. Um, yeah. ’cause they’re manufacturing steel and currently steel produces a lot of emissions. But then on the [00:16:00] flip side, I. Well, you know, there’s the potential for this to become green steel, given that there is such a huge renewable energy, um, potential in that region.

So that’s my, that’s my guess. Probably a pretty safe guess that there’s some, some sort of plans for industrial uses for this huge amount of green energy that would come online.

Joel Saxum: I think an interesting thing here too, in the article they’re mentioning 90 meter blades and, and I don’t know if they have a turbine model planned or they’re just expecting that’s what it’ll be, but because the port, the port of Al’s right there, they only have to transport those big old blades.

50 kilometers out to the site. Like that’s, that’s amazing. That’s great.

Rosemary Barnes: Yeah. I think they also cited that might come from port, port of Adelaide might be used for transport as well, so it’s a little, little bit further, but still not, not that far in, it’s not like a really lush, vegetated region with a whole lot of huge dense forest right up to the road.

It’s um, you know, it’s a fairly, um, arid, uh, [00:17:00] climate in that region, so I don’t think that transport is gonna be a huge, huge issue for them. Um, yeah, but I do think that also that’s, that’s all I hear for, um, for new big wind farms in Australia, all I hear is huge wind turbines like much bigger than what you typically see for, for onshore.

Like, I don’t, like six megawatts is kind of like. The smallest for things that are coming on very soon. And then after that, people are talking like 10, 12 megawatts. Like I, obviously these turbines barely exist now beyond, you know, like computer models and, um, maybe some prototypes, but obviously. They’re making really big offshore wind turbines.

It’s a lot easier to probably go in the direction from offshore to onshore than the other way around. So it’s not like anyone doubts that it’s possible to make wind turbines like that. Um, onshore wind turbines that big, but. The, um, logistics of installed them seems hard.

Joel Saxum: You know, Alan, correct me if I’m wrong, [00:18:00] but, but, uh, one of our friends down in Australia told us that GE was gonna be installing only one model, the 6 1 1 58, 6 0.1 megawatt machine from here going forward.

And I think, Rosemary, to your point, he also told us that this is the, one of the first turbines that they’ve extensively tested. For a longer duration. So this was the first one that’s been like the, the, you know, serial, serial number, number one has been installed and will have been running for a year before they even install serial number number two in the field.

So that’s a, so tackling both things here, bigger turbine. Yes. Uh, and that’s the only one they’re gonna go with. So they can focus on, it is a workhorse machine and they can make sure they’re maintaining it correctly, but they’ve also got some, uh, they’re gonna have more operational history on it before they actually go and start.

Building tons of’em. ’cause we know we’ve heard of those wind farms where they, the turbines don’t even have a tech certificate yet and they’re sending a two, 300 of ’em out there.

Rosemary Barnes: Yeah, well, I mean it’s really [00:19:00] normal that you know, like your, um, and you know, obviously I know, I know blades primarily, but you know, your serial number one is your test blade.

Maybe there’s a two as well. That’s also a test played sometimes. Not usually. Um, and then, yeah, like, so serial one is a test blade. Serial number two is in the field, and so is 3, 4, 5, 6, you, you know what I mean? Like you start the test. You’ve probably passed like some, some of your tests, maybe the, um, static test is completed already, but then the fatigue test is only partway done by the time that you’re installing, um, blades in the field usually.

So, I mean, it’s, it’s because people have become very good, um, the design codes, the, you know, the materials factors that they. They know it all really well. It’s really proven out over decades of experience, and so they felt very safe and it was incredibly rare that you would see a problem until recently.

Now it’s not such a big problem. So I think that’s a, a fantastic, um, step to make, to be a bit more certain. But I mean, [00:20:00] even that is not I adding. All that much safety, if you think about it, one turbine in one location in the world. I thought what you were gonna say is that GE are only doing one turbine type in Australia and that they have taken the effort to understand that Australia’s specific conditions and, uh, you know, know that the.

Leading edge protection is UV resistant and so will last more than one year. That Yeah. The, you know, lightning protection system performs well under the types of storms that we see in, uh, the places in Australia where they install a lot of, um, big wind farms. Um, that, yeah, like there’s some, uh, higher temperature resistance because you know, a lot of, um.

A lot of wind farms are in deserts where the temperatures are frequently above 40 degrees during the day. And everyone knows, everyone that’s been in a wind turbine knows that inside the wind turbine, inside the blade is at least 10 degrees hotter than that, right? Pushing up, butting up or past, um, material safety limits.

So, um, that is what I would, I [00:21:00] would really like to see.

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Visit OGs ping.com and take control of your turbine’s health today. Yeah, the classic cultures, a delegation from Louisiana traveled to Denmark to learn about, uh, wind energy from the experts in Denmark, which is a smart thing to do, and I wish more states would do this actually. Uh, the tour, which is organized by the center for.

Planning excellence included state and local officials from Louisiana, academic researchers, industry experts, and of course port authorities, which are so critical to the success of offshore wind farms. And they went over to, uh, learn all they could from [00:22:00] everybody in Denmark. Now, the, the ports in Denmark are really unique in the sense that they have been redeveloped over time and they are.

Are extremely powerful in supporting denmark’s wind energy, uh, organizations. And they support a lot of ’em, uh, right from the ports in Denmark. Now, one of the things I thought was a little interesting is that Louisiana, which really doesn’t have any offshore wind, is actively pursuing it. And even though the, the, the, the federal government in the United States is not looking to announce any more win sites, Louisiana, I think it’s going to push for some.

Because it does provide a number of jobs, and Louisiana is really set up and our friends at Gulf Wind Technology have created a low wind speed wind turbine blade that will make it possible to have offshore wind near Louisiana. Joel, does this make sense to you? Does it seem like Louisiana has taken a very forward first step?

Joel Saxum: I think there’s a couple of ab, absolutely, completely agree. Alan, I’ll just [00:23:00] start with that, but there’s a couple of things here Louisiana Wise that people may not know. First one. When they started developing offshore oil and gas in the North Sea and Norway and all this stuff, and back in the seventies, they called people from Louisiana to come and teach ’em how to do it.

’cause the, ’cause the, the Cajun Navy had been doing it in, in the Gulf for a couple years already. So they knew how to do it. They took their expertise and they went and gave it to. The North Sea, right? So now the tides have turned, the louisianans are heading back up to there, to, to the North Sea to get some knowledge to bring it back.

And uh, so that’s one little kind of equipped story. But the other one that’s interesting here too, and Phil, you and I have talked about this. I know Alan, we’ve talked about this as well. Louisiana’s the only state that has tried to do offshore wind within their state boundary waters. And they’ve put in.

They put in legislation to share in the profitability of these wind farms, which is a great move in, in, [00:24:00] in my opinion, the same thing that like Alaska has done and Texas has done with their oil reserves. If the, is the reserves there, someone’s gonna make money on it, the whole state should benefit. So they’ve done that.

Um. They’ve got the infrastructure, like you said, Gulf Wind Technology. They got a key side facility. There’s all kinds of ship manufacturers. The ship, the Eco Edison, that’s up in or on Ted’s sites up in New York that came, that was built in Louisiana. So like the, I think that was, was Thatwe who built that one?

Maybe Phil, you know that, was that Edison SCH West? Yes. Yes. So I think they’re based in Houma, which is, you know, right there. So. They have the key side facilities. They have the vessels. They know how to operate offshore. They’ve already put legislation in place. I think that the, the government of Louisiana is, is charging forward.

I did read something the other day too that said, um, quietly there has been some onshore development in Louisiana. They’re like fi five different wind farms that have been then property rights and those kind of negotiations are going on in the background that. The general, you [00:25:00] know, the general wind industry.

You wouldn’t think of Louisiana as a place for wind, but it’s happening.

Allen Hall: Well, let’s talk about, the one item I wanted to talk about, about this is the food culture and the clash between the two food cultures. So having been to Denmark and Rosemary took, uh, Valerie, my wife and me to a, uh, really nice, uh, restaurant with where they have SMI board gr, which is this open face sandwich on rye bread.

That is about the consistency of a two by four Delicious, but it is very thick and dense. So, uh, you have to, you have to, it isn’t the same what you’re gonna pick up and eat. You’re gonna have to cut it with a knife and a fork. It’s really thick. Delicious, though. Quite delicious. And Louisiana is known for the Cajun cooking, right?

Everything New Orleans is fantastic. I did a quick look to see how many Michelin stars are in the state of Louisiana and Louisiana’s about. Three times the size of Denmark. There are no Michelin restaurants in the state of Louisiana, which is hard to believe. ’cause if you’ve been to New Orleans, [00:26:00] they have a lot of great restaurants.

Rosemary Barnes: It has a reputation for good food too. It’s not like the rest of the world is, is knows that there’s good food there

Allen Hall: everywhere and where you stop. But Denmark has over 30 Michelin star restaurants.

Joel Saxum: Copenhagen has the most. The most of any city in the world. Copenhagen is the, the head.

Rosemary Barnes: Yeah, Denmark’s really good for, um, like it’s expensive to eat out, even like bad food is really expensive.

If you wanted to, I dunno, I never ate McDonald’s in Denmark, but, you know, something like that or around that level, like pizza, very expensive, not very good, but one step above that is not. Very much more expensive, but is like amazing quality. So if you go to like the local inns, they’re called Crow. Um, they, uh, usually like bordering with fine dining.

They’re just, the food is amazing. Like it’s a little bit more relaxed atmosphere, but just absolutely fantastic food. And in fact, one time we went to a place that was because we were living in Colding. It’s a town of like 60,000 people, like in. Fairly [00:27:00] rural jet land. We went to a place in a, a nearby, even smaller town, um, and went to this restaurant.

Fantastic. Like I’ve never had such good bread and butter was like the thing that stands out. Most of that meal for me was how good the. The bread and yeah, the bread and butter is, um, and then like a month later, it got a Michelin star, but it wasn’t, it wasn’t like it was known as a good restaurant, but it wasn’t like no one is being fine dining or anything.

But that’s like, that’s what I’m saying is that there’s a lot, like the bulk of the nice ish restaurants in Denmark are right on that cusp of being fine dining. Um, so it’s, yeah, it’s a little, it, it, it’s, it’s quite cool once you get the hang of it. And once you realize that. The lower tier, just no point doing that.

You know, you either stay at home and eat, or you spend a tiny bit more and get amazing food, but don’t do that like, you know, don’t go out for pizza. It’s, um, it’s hard to find, find something good like that.

Joel Saxum: I think, Rosemary, you nailed it. When we were talking earlier about premium ingredients, and that’s one of the big [00:28:00] differences between Denmark Food and Copenhagen Restaurants and Louisiana, because in Louisiana you may eat something and it tastes delicious, but you’ll have no idea what is in that food.

You, you, you’re gonna know that the base is probably a ro or they use the holy trinity at some point in this dish. Bell pepper, onion, celery, that’s the holy trinity in Louisiana. And most all dishes are gonna have some form of that in it. So you might be eating like a soup or like, sometimes it looks like a paste.

I don’t know, but like a good tufe. Is it lump crab? Is it crawfish? Is it what’s in here? I don’t know. Here you go. But it’s delicious. It’s gonna be good.

Allen Hall: Roseberry, you have a very important announcement.

Rosemary Barnes: Yeah. Uh, coming up we have uh, Australian Wind Industry Forum, which is on Tuesday, May 6th. And I’m very excited ’cause I’m speaking this year.

I have, um, I have tried to speak at this conference for a few years and it’s gonna be in a session. There’s a session on turbine design. [00:29:00] Um. Related issues, uh, turbine design and technology. And so I’m gonna be giving a presentation. It’s called. Innovation in wind energy lessons from the front lines. So I’m gonna be talking about how the design certification process works for wind turbines and then also what happens when something goes wrong.

You know, when you, uh, are in the field and you have, uh, I don’t know, serial defects or you suspect serial defects, you’ve got a lot of blades breaking. You’ve got a lot of. Lightning damage. You’ve got, I dunno, problems with, uh, excessive downtime for whatever reason. Um, yeah, gonna talk about that. And then also, like I mentioned earlier in the show, Australians really love to be the first ones to get a new type of turbine.

Um, how could you make sure that you can be a leader without being a Guinea pig? So gonna talk about some of the things you can do because actually, um, you, a customer, an an early customer, if they’re a large customer, does have the opportunity to be part of that design process. And in particular. You can request [00:30:00] certain tests are, are, are done.

Um, I’m not saying that it’s guaranteed that the OEM will perform them for you, but you certainly, you and your bank and your insurance all have the ability to, you know, be part of that, um, design process if you are an, an early adopter with a large order. So we’re gonna be talking about yeah. How to, how to manage all of those issues in the Australian context.

So come along

Allen Hall: and where can I go to register for this event,

Rosemary Barnes: you can go to wind industry forum.com au.

Allen Hall: That’s gonna do it for this week’s Uptime Wind Energy podcast. Give thanks for listening. Please give us a five star rating and tell your friends. Tell your neighbors. Tell your neighbors friends to start listening to the show.

We’ve had a lot more people join us lately. And we want that trend to continue. So thank you for listening, and we’ll see you here next week on the Uptime Wind Energy [00:31:00] Podcast.

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