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United States Renewable Energy Landscape

A Journey Through Time: Tracing the History of Renewable Energy in the United States


The tale of renewable energy in the United States is a long and winding one, marked by periods of innovation, decline, and resurgence. 

Let’s take a trip down memory lane to explore this dynamic story:


Early Beginnings (Before 1800s):



  • Wood Power: For millennia, wood remained the primary source of energy for heating, cooking, and lighting. Its abundance and ease of access made it the go-to fuel for early Americans.

  • Water Power: Harnessing the power of flowing water for grinding grain and powering small mills started appearing as early as the 17th century.


The Rise of Hydropower (1800s – Early 1900s):



  • Industrial Revolution: The 19th century saw a surge in industrialization, demanding greater energy needs. Hydropower emerged as a powerful solution, with the first commercial hydroelectric plant opening in Appleton, Wisconsin, in 1882.

  • Dam Construction Boom: Large-scale dam projects like Hoover Dam in the 1930s further cemented hydropower’s dominance as the leading renewable energy source.


Shifting Landscapes (Early 1900s – Mid 20th Century):



  • Fossil Fuel Era: Discovery of vast oil and natural gas reserves, coupled with technological advancements, led to a shift towards these cheaper and readily available fossil fuels. Renewable energy gradually receded into the background.

  • Wood’s Resurgence: World War I and II, with their constraints on fossil fuels, saw a temporary return to wood as a heating source.


Environmental Awakening (Mid 20th Century – Present):



  • Renewed Interest: Growing concerns about environmental damage and limited fossil fuel resources sparked a renewed interest in renewable energy sources in the 1970s.

  • Policy Push: The oil crisis of the 1970s further propelled policy changes encouraging renewable energy development. The Carter administration invested in solar and wind research, laying the groundwork for future advancements.

  • Tech Advancements: Technological innovations, particularly in solar panels and wind turbines, drastically reduced their costs, making them more competitive with fossil fuels.

  • Continued Growth: Today, renewable energy sources like solar, wind, and geothermal are witnessing significant growth, driven by supportive policies, falling costs, and public demand for clean energy.


Key Milestones:



  • 1978: The Public Utility Regulatory Policies Act (PURPA) encourages renewable energy development by requiring utilities to buy surplus electricity from small producers.

  • 1992: The Energy Policy Act of 1992 incentivizes renewable energy projects with tax credits and grants.

  • 2005: The Renewable Portfolio Standards (RPS) require states to increase their reliance on renewable energy sources.

  • 2011: Renewable energy surpasses nuclear power for the first time in the United States.

  • 2022: The Inflation Reduction Act provides substantial funding for renewable energy development, transmission, and storage.


Looking Ahead:


The future of renewable energy in the United States is bright. With continued investment, technological advancements, and supportive policies, renewable sources are poised to play an increasingly crucial role in meeting the nation’s energy needs while creating a cleaner and more sustainable future.


United States Renewable Energy Landscape

Renewable Energy Consumption in the United States


Here’s a breakdown of renewable energy consumption in the US, incorporating insights from recent data and addressing potential confusion:


Overall:



  • In 2022, renewable energy accounted for 13.18 quadrillion British thermal units (Btu) of total energy consumption, or 13% of the national energy use.

  • This figure includes renewable sources like hydropower, wind, solar, geothermal, biomass, and biofuels.

  • Notably, hydropower makes up the largest share of renewable consumption, contributing approximately 37% of the total.

  • However, solar and wind are experiencing the fastest growth, with their combined contribution reaching 33% in 2022.


Consumption vs. Production:



  • It’s crucial to differentiate between consumption and production. While 13% represents consumption, renewable energy production in the US reached 13.40 quads, or 13% of total production, in 2022.


Specific Sources:


Here’s a breakdown of specific renewable energy sources’ consumption based on 2022 data:



  • Hydropower: 4.90 quads (37%)

  • Biomass: 3.02 quads (23%)

  • Wind: 1.62 quads (12%)

  • Solar: 1.43 quads (11%)

  • Biofuels: 1.34 quads (10%)

  • Geothermal: 0.87 quads (7%)


Growth and Future Outlook:



  • Renewable energy consumption has been steadily increasing in the US, with a significant jump from 9.9% in 2021 to 13% in 2022.

  • Factors like the Inflation Reduction Act of 2022 and continued technological advancements are expected to accelerate this growth in the coming years.

  • Experts predict that renewable energy consumption could reach 28% of total energy use by 2050.


United States Renewable Energy Landscape

Breakdown Data of Renewable Energy in the United States


Production (2022):



Source Energy Production (Trillion Btu) Percentage of Total Renewable Production
Hydropower 8.13 61.3%
Wind 13.30 29.8%
Solar 3.99 7.5%
Biomass 2.00 1.4%
Geothermal 0.01 0.0%
Total Renewables 17.43 13.4%



Consumption (2022):



Source Energy Consumption (Trillion Btu) Percentage of Total Renewable Consumption
Hydropower 7.85 58.5%
Wind 5.92 43.9%
Solar 1.29 9.6%
Biomass (Biofuels & Electricity) 4.42 32.8%
Geothermal 0.03 0.2%
Total Renewables 19.51 15.0%



Additional Breakdown:



  • Wind: Texas, Oklahoma, and Iowa are the top three states for wind energy production.

  • Solar: California, Texas, and Florida are the top three states for solar energy production.

  • Biomass: Biofuels (mainly for transportation) account for roughly half of biomass consumption, while the other half comes from biomass electricity generation.

  • Hydropower: The majority of hydropower production comes from large dams, especially in the West and Pacific Northwest.


Sources:



United States Renewable Energy Landscape

Hydropower Statistics in the United States


Production:



  • 2022: Hydropower accounted for 6.2% of total U.S. utility-scale electricity generation and 28.7% of total utility-scale renewable electricity generation.

  • Energy generation:


    • 262 billion kilowatthours (kWh) in 2022 (13.4% of renewable production, 61.3% of hydro production)

    • Highest recorded annual generation was in 2011 (812 billion kWh)



  • Capacity:


    • 102 gigawatts (GW) as of 2022, primarily from large dams.

    • Largest facility: Grand Coulee Dam (Washington) with 6,765 MW capacity.




Consumption:



  • 2022: Consumed 7.85 trillion Btu (equivalent to 230 TWh).

  • Source:


    • Conventional Hydropower: 99.8%

    • Pumped Storage Hydropower: 0.2%




Distribution:



  • Top 5 Hydropower-Producing States:


    • Washington

    • California

    • Oregon

    • Tennessee

    • Alabama



  • Regional Breakdown:


    • West: 62% of national capacity

    • Southeast: 22%

    • Northeast: 9%

    • Midwest: 7%




Environmental Impact:



  • Positive: Clean energy source, low greenhouse gas emissions.

  • Negative: Dams can harm ecosystems and fisheries, displace communities.


Additional Notes:



  • Hydropower development has slowed down in recent years due to environmental concerns and competition from other renewable sources.

  • Pumped storage hydropower plays a critical role in grid management by storing and releasing energy when needed.

  • The future of hydropower in the US is uncertain, but it is likely to remain an important source of clean energy.
United States Renewable Energy Landscape

Wind Energy Statistics in the United States


Here’s a summary of some key statistics on wind energy in the US, as of 2023/early 2024:


Generation:



  • Electricity: In 2022, wind power generated 434.8 terawatt hours of electricity, making it the main source of renewable energy in the US, surpassing hydropower. (Source: Statista)

  • Growth: Since 2000, wind electricity generation has increased significantly, from 6 billion kWh to 380 billion kWh in 2021. In 2022, it accounted for 10.2% of total US utility-scale electricity generation. (Source: EIA)


Capacity and Infrastructure:



  • Installed capacity: As of 2023, the US has a total wind power capacity of 146 gigawatts (GW), enough to power 46 million American homes. This makes it the fourth-largest source of electricity generation capacity in the country. (Source: Clean Power Alliance)

  • Turbines: Over 70,000 wind turbines are currently operating across all 50 states. (Source: Clean Power Alliance)


Economic Impact:



  • Jobs: In 2020, the wind industry supported over 120,000 jobs in the US. (Source: Clean Power Alliance)

  • Investments: Renewable energy investments, including wind, rose to $105 billion in 2021, a 7% increase from the previous year. (Source: Statista)

  • Environmental benefits: Wind energy avoided 336 million metric tons of CO2 emissions in 2022. (Source: Clean Power Alliance)


United States Renewable Energy Landscape

Solar Energy Statistics in the United States


Here’s a summary of some key statistics on solar energy in the US, as of 2023/early 2024:


Generation:



  • Electricity: In 2022, solar power generated 145.6 terawatt hours of electricity, representing 3.4% of the total and 15.9% of renewable energy production. (Source: Statista, EcoWatch)

  • Growth: Solar electricity generation has seen rapid growth, experiencing an average annual increase of 24% in the last decade. (Source: Statista)


Capacity and Infrastructure:



  • Installed capacity: As of 2022, the US has a total solar power capacity of 110 gigawatts (GW), enough to power 37 million American homes. (Source: Statista)

  • Systems: Over 3 million solar photovoltaic (PV) systems are installed across the US, with residential installations growing at a record pace in 2022. (Source: SEIA)


Economic Impact:



  • Jobs: The solar industry employed over 346,000 workers in 2022, and the workforce grew by 3.7% from the previous year. (Source: EcoWatch)

  • Investments: Private investments in the solar industry reached $36 billion in 2022. (Source: SEIA)

  • Environmental benefits: Solar energy avoided 84 million metric tons of CO2 emissions in 2022. (Source: SEIA)


United States Renewable Energy Landscape

Biomass Energy Statistics in the United States


Here’s some key data on biomass energy in the US as of February 19, 2024:


Overall Contribution:



  • Share of total energy consumption: 5% in 2022 (4,930 trillion British thermal units, TBtu)

  • Largest source before mid-1800s.


Sources of Biomass Energy:



  • Biofuels (49%):


    • Ethanol production: 15.4 billion gallons in 2022

    • Biodiesel/renewable diesel production: 3.1 billion gallons in 2022



  • Wood and wood waste (43%):


    • Net electricity generation: 39.9 gigawatt hours in 2019 (3rd largest non-hydroelectric renewable source)

    • Densified biomass fuel production capacity: 12.96 million tons per year (as of November 2023)



  • Waste energy (8%)


United States Renewable Energy Landscape

Geothermal Energy Statistics in the United States


Here’s some key data on geothermal energy in the US as of February 19, 2024:


Overall Contribution:



  • Share of total electricity generation: 0.4% in 2022 (17 billion kilowatthours)

  • Ranked 5th among renewable energy sources in the US.


Capacity and Production:



  • Installed geothermal capacity: 2,653 megawatts (MW) as of 2022, leading the world.

  • Geothermal electricity generation: 214 trillion British thermal units (Btu) of renewable energy consumed in 2022.

  • California: holds the top spot with 2,792 MW installed capacity, followed by Nevada with 805 MW.


Additional Notes:



  • Geothermal energy also finds applications beyond electricity generation, including direct heating for buildings, greenhouses, and industrial processes.

  • Despite its potential, geothermal energy faces challenges like upfront costs, limited geographical suitability, and permitting hurdles.


United States Renewable Energy Landscape

Top 10 Largest Renewable Energy Infrastructures in the United States by Capacity


Here’s a table summarizing the Largest Renewable Energy Infrastructures in the United States by Capacity



Rank Infrastructure Name Type Capacity (Gigawatts) State(s) Owner(s)
1 Grand Coulee Dam Hydroelectric Project Hydroelectric 7.26 Washington U.S. Bureau of Reclamation
2 Hoover Dam Hydroelectric Project Hydroelectric 2.08 Arizona & Nevada U.S. Bureau of Reclamation
3 Antelope Solar Project Solar 3.5 GW (DC) California NextEra Energy
4 Alta Wind Farms Wind 1.3 GW California PacifiCorp & Berkshire Hathaway Energy
5 Fowler Ridge Wind Farm Wind 1.26 GW Indiana EDP Renewables
6 Sapphire Wind Farm Wind 1.22 GW Wyoming PacifiCorp & Berkshire Hathaway Energy
7 Coronation Solar Project Solar 1.2 GW (AC) New Mexico Enel Green Power
8 Desert Sunlight Solar Farm Solar 550 MW (AC) California First Solar
9 Diamond Generating Station (Unit 3) Natural Gas with Carbon Capture & Storage 0.53 GW (net) Oklahoma NET Power & Fluor Corporation
10 Topaz Solar Farm Solar 550 MW (AC) California SunPower & Google



Notes:



  • This list includes both operational and under-construction projects.

  • Capacity is measured in either gigawatts (GW) or megawatts (MW). DC (direct current) and AC (alternating current) capacities are specified where relevant.

  • “Natural Gas with Carbon Capture & Storage” is still technically considered a fossil fuel source, but included here due to its potential for reducing greenhouse gas emissions.


United States Renewable Energy Landscape

Top 10 Largest Renewable Energy Companies in the United States


The renewable energy sector in the United States is rapidly growing, with many companies playing a significant role in the transition to clean energy. 

Here are 10 of the largest renewable energy companies in the US, along with some of their notable projects:


1. NextEra Energy:



  • Market Cap: $186.4 billion

  • Focus: Wind and solar energy

  • Notable projects:


    • Wind: Grady County Wind Farm (Texas, 815 MW), Summit Ridge Wind Farm (Iowa, 540 MW)

    • Solar: Manatee Solar Energy Center (Florida, 700 MW), Voyager Solar Project (California, 500 MW)




2. Brookfield Renewable Partners:



  • Market Cap: $70.6 billion

  • Focus: Hydropower, wind, solar, and battery storage

  • Notable projects:


    • Hydropower: Grand River Hydro Facility (Michigan, 1,000 MW)

    • Wind: Jericho Wind Farm (Texas, 213 MW), Shannon Ridge Wind Farm (Iowa, 175 MW)

    • Solar: Maricopa Solar Project (California, 400 MW)




3. Ørsted:



  • Market Cap: $49.8 billion

  • Focus: Offshore wind energy

  • Notable projects:


    • Offshore wind: Block Island Wind Farm (Rhode Island, 30 MW), Hornsea Project 2 (UK, 1.386 GW)




4. Duke Energy:



  • Market Cap: $69.8 billion

  • Focus: Diversified energy company with significant renewable energy investments

  • Notable projects:


    • Solar: Hamilton Solar PV Facility (North Carolina, 80 MW), Buckeye Solar Facility (Arizona, 100 MW)

    • Wind: Atlantic Coast Offshore Wind Farm (North Carolina, 2.5 GW)




5. Dominion Energy:



  • Market Cap: $60.4 billion

  • Focus: Diversified energy company with significant renewable energy investments

  • Notable projects:


    • Solar: Coastal Virginia Solar Project (Virginia, 170 MW), Mount Sterling Solar Facility (Kentucky, 130 MW)

    • Offshore wind: Coastal Virginia Offshore Wind (Virginia, 2.6 GW)




6. Constellation Energy:



  • Market Cap: $22.4 billion

  • Focus: Regulated utility with investments in renewable energy generation

  • Notable projects:


    • Solar: Beryl Solar Project (Utah, 200 MW)

    • Wind: Wild Horse Solar Facility (Nevada, 500 MW)




7. EDP Renewables North America:



  • Market Cap: N/A (subsidiary of EDP Renewables)

  • Focus: Wind and solar energy

  • Notable projects:


    • Wind: Fowler Ridge Wind Farm (Indiana, 600 MW)

    • Solar: Agua Caliente Solar Project (Arizona, 290 MW)




8. Invenergy:



  • Market Cap: N/A (private company)

  • Focus: Wind and solar energy

  • Notable projects:


    • Wind: Capricorn Ridge Wind Farm (Texas, 460 MW)

    • Solar: Mojave Solar Project (California, 500 MW)




9. Apex Clean Energy:



  • Market Cap: N/A (private company)

  • Focus: Wind and solar energy

  • Notable projects:


    • Wind: Atlantic Sunrise Wind Farm (Virginia, 600 MW)

    • Solar: Blue Mountain Solar Farm (Utah, 130 MW)




10. Avangrid Renewables:



  • Market Cap: N/A (subsidiary of Avangrid)

  • Focus: Wind and solar energy

  • Notable projects:


    • Wind: Weaver Wind Project (Wyoming, 243 MW)

    • Solar: Castle Solar Project (California, 267 MW)




This list is not exhaustive, and there are many other important renewable energy companies in the United States. However, it provides a good overview of some of the leading players in the industry and their current projects.

United States Renewable Energy Landscape

Latest Renewable Energy Tech in the US: A Data-Driven Look


The US renewable energy landscape is buzzing with advancements across various sources and storage solutions. Here’s a data-driven snapshot of some key developments:


Solar:



  • Perovskite solar cells: Boasting cheaper production and exceeding 25% efficiency (compared to traditional silicon’s 20%), these next-gen cells could revolutionize the industry.

  • Building-integrated photovoltaics (BIPV): This aesthetically pleasing tech integrates solar panels directly into buildings, reducing costs and offering seamless integration.


Wind:



  • Offshore wind: Vast untapped resources are propelling large-scale projects, offering stronger and more consistent wind energy.

  • Floating wind turbines: Expanding possibilities by allowing deployment in deeper waters, particularly along the West Coast.


Energy storage:



  • Long-duration storage: Technologies like flow batteries and compressed air are crucial for integrating renewables into the grid, offering days or even weeks of storage capacity.

  • Battery advancements: Continuously decreasing costs and emerging chemistries like lithium-sulfur batteries promise even higher energy storage potential.


Other technologies:



  • Geothermal energy: New methods for extracting energy from lower-temperature resources aim to unlock more of this clean and reliable source.

  • Hydrogen: Produced from renewables, hydrogen offers storage, electricity generation, and vehicle fuel potential, but cost and infrastructure hurdles remain.


Data highlights:



  • In 2022, annual US renewable energy generation surpassed coal for the first time.

  • Domestic solar energy is expected to rise by 75% and wind by 11% by 2025.

  • The Energy Department invests heavily in driving down the cost of solar energy in America.


These are just a few examples of the dynamic renewable energy landscape in the US. As costs continue to fall and technologies further mature, we can expect even more exciting breakthroughs in the future, paving the way for a cleaner and more sustainable energy future.

United States Renewable Energy Landscape

Future of Renewable Energy Development in United States

The future of renewable energy development in the United States appears bright, driven by several key factors:


Growing Demand:



  • Public and corporate demand for clean energy is surging, fueled by climate change concerns and economic benefits.

  • Net-zero targets set by governments and corporations further accelerate the shift towards renewables.


Technological Advancements:



  • Continued cost reductions in solar, wind, and other renewables make them increasingly competitive with fossil fuels.

  • Innovations in areas like grid integration, energy storage, and emerging technologies like geothermal and hydrogen unlock new possibilities.


Policy and Investment:



  • The Biden administration’s ambitious goals and infrastructure investments prioritize renewable energy development.

  • States are enacting clean energy mandates and providing incentives, creating a supportive policy environment.

  • Continued private sector investment fuels innovation and project development.


Challenges and Opportunities:



  • Transmission grid upgrades are crucial to connect renewable energy sources to demand centers.

  • Permitting processes and community concerns require streamlining and transparent solutions.

  • Ensuring a just transition for workers in the fossil fuel industry is vital for social acceptance.


Potential Future Trajectory:



  • Experts predict continued exponential growth in renewable energy capacity, potentially reaching 80% of the US electricity mix by 2050.

  • Decentralized renewables like rooftop solar and community microgrids could play a significant role.

  • Hybrid energy systems combining renewables with other sources like natural gas may be utilized for grid stability.

  • The US has the potential to become a global leader in clean energy technology and export innovation.


Here are some additional data points to consider:



  • In 2023, renewable energy accounted for 22% of US electricity generation, with solar and wind leading the way.

  • The Energy Information Administration projects renewables to be the fastest-growing source of electricity generation in the coming decades.

  • The renewable energy sector already employs millions of Americans, and these numbers are expected to grow significantly.


The future of renewable energy development in the US is promising, with potential for significant economic and environmental benefits. However, overcoming challenges and maximizing opportunities will require continued policy support, technological advancements, and community engagement.

https://www.exaputra.com/2024/02/united-states-renewable-energy-landscape.html

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Renewable Energy

EchoBolt’s BoltWave Makes Bolt Inspections Easy

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EchoBolt’s BoltWave Makes Bolt Inspections Easy

Pete Andrews from EchoBolt joins to discuss ultrasonic bolt inspection, the Bolt Wave device, and blade stud defect detection.

Sign up now for Uptime Tech News, our weekly newsletter on all things wind technology. This episode is sponsored by Weather Guard Lightning Tech. Learn more about Weather Guard’s StrikeTape Wind Turbine LPS retrofit. Follow the show on YouTube, Linkedin and visit Weather Guard on the web. And subscribe to Rosemary’s “Engineering with Rosie” YouTube channel here. Have a question we can answer on the show? Email us!

Welcome to Uptime Spotlight, shining light on wind. Energy’s brightest innovators. This is the Progress Powering tomorrow.

Pete Andrews: Pete, welcome to the program. Good to be back. Yeah. See you face to face. Yeah. Yes. This is wonderful. It’s a really great event to catch it with loads of the. UK innovation that are happening in the supply chain. So it’s, yeah, really nice to be here.

Allen Hall: This is really good to meet in person because we have seen a lot of bolt issues in the us, Canada, Australia, yeah.

Uh, all around the world and every time bolt problems come up, I say, have you called Pete Andrews and Echo Bolt and gotten the kit to detect bolt issues? And then who’s Pete? Give me Pete’s phone number. Okay, sure. Uh, but now that we’re here in person, a lot has changed since we first talked to you probably two years ago.[00:01:00]

You’re a bootstrap company based in the UK that has global presence, and I, I think it’s a good start to explain what the technology is and why Echo Bolt matters so much in today’s world.

Pete Andrews: Yeah, absolutely. So, um, as you said, we’re a uk, um, SME, there’s a team of 13 of us based here in the uk. Yeah. But we do deliver our services internationally, but really focused on Northern Europe.

Yeah. But increasingly we’ve done more in the US and North America, a little bit in Canada. Um, but our big offering really is to help wind turbine operators and owners reduce the need to routinely retire in bulks. So we have a quick and simple inspection technology that people can deploy, find out the status of their bolt connections, and then.

Reti them if necessary, but the vast majority of the time we find that they’re static and absolutely fine and can be left [00:02:00] alone. So it’s a real big efficiency boost for wind operators.

Joel Saxum: Well, you’re doing things by prescription now, right? Instead of just blanket cover, we’re gonna do all of this. It’s like, let’s work on the ones that actually need to be worked on.

Let’s do the, the work that we actually need to, and instead of lugging, like we’re looking at the kit right here, and I can, you can hold the case in one hand, let alone the tools in a couple of fingers. As opposed to torque tensioning tools that are this big, they weigh a hundred kilos, and those come with all of their own problems.

So I know that you guys said you’re, you’re focused here. You do a lot of work, um, in the offshore wind world as well. Yeah. I mean, offshore wind is where you add a zero right? To zeros. Yeah. Everything else is that much more complicated. It costs that much more. It’s you’re transitioning people offshore to the transition pieces.

Like there’s so much more HSE risk, dollar risk, all of these different spend things. So. The Echo Bolt systems, these different tools that you have being developed and utilized here first make absolute sense, but now you guys are starting to go to onshore as well.

Pete Andrews: Yeah, that’s right. So I mean, as as you said, that there’s really [00:03:00] three main benefit areas we focus on.

The first one is the health and safety of technicians, right? As you said, some of the fasteners used offshore now are up to MA hundred. So a hundred millimeter diameter bolts,

Joel Saxum: four inches for our American friends. Yeah, absolutely.

Pete Andrews: And they probably weigh. 30 kilos plus per bolt. Yeah. Um, so just the physical manual handling of that sort of equipment and the tightening equipment for those bolts is a huge risk for people.

If you think 150 bolts lifting or maneuvering, the tooling around on on its own can cause all the problems. So as well as the inherent risk of the hydraulic kit failing. So occasionally we see catastrophic tool failure. Is, which have really high potential severity, you know, sort of tensioner heads ejecting or crush injuries from Tor.

So that is really a key focus for our customers, just to [00:04:00] keep their teams safe, but also you have to be the cost effective and the the major cost benefit we allow is that we don’t have to revisit every bolt and every turbine like you’d have to do if you were retyping. So we believe there’s something of the order of a million pounds per installed gigawatt saving.

By moving from a routine REIT uh, maintenance strategy to a focused condition based inspection, you significantly reduce the amount of intervention you make and keep your turbines running more and reduce the boots on the ground on the turbine. So three real kind of, um, key. Benefits for people adopting our technology

Allen Hall: because we routinely see tower bolts being reworked or retention depending on who the manufacturer is.

And I’m watching this go on. I’m like, why are [00:05:00] we doing this? It seems, or the 10% rule, we’re tighten 10% this year, and they’ll come back and see how it’s going. That’s a little insane, right, because you’re just kind of. Tensioning bolts up to see if one of them has a problem and then you just do more of them and we’re wasting so much time because echo bolts figured this out years ago.

You don’t need to do that. You can tell what the tension is in a bolt ultrasonically, which was the original technology, the first gen I’ll call it, uh, that you could tell the length of the bolt. If the length of the bolt is correct within certain parameters, you know that it is tension properly. If it’s shrunk, that probably means it’s not tensioned properly.

That’s a huge advantage because you can’t physically see it. And I know I’ve seen technicians go, oh, I could take a hammer and I can tell you which ones are not tensioned properly wrong. Wrong. And I think that’s where equitable comes in because you’re actually applying a a lot of science simply [00:06:00] to a complex problem because the numbers are so big.

Pete Andrews: Yeah, I mean that, that, that’s been the real. Driving force between our offering is to simplify it. So ultimately we’re based on a non-destructive testing technique. It’s an ultrasonic thickness checking technique, but when from the non-destructive testing background, it’s crack detection, people have time, they can be, it’s a very precision measurement.

People have to be trained in the wind industry. We’re trying to inspect. A thousand, 2000 bolts a day at scale. It’s a completely different, um, ask of the technology and the way the technology has been developed historically has required too much technician expertise, too much configuration and set up time, and hasn’t delivered on the, on the speed that’s needed to be efficient in wind.

And that’s where our bolt wave [00:07:00] unit we’ve, that we’ve developed over the last. 18 months, let’s say, where all of our focus has gone to make it as slick and as easy for a client technician to pick up with minimal training. It’s through an iOS interface. Everyone understands it intuitively. Um, it’s a bit like using the camera app on your phone.

You know, you’re just hitting measure, measure, measure, measure, measure 10 seconds a bolt as you move the, um, ultrasonic transducer across, and then the data gets moved. Automatically to the cloud, to our bolt platform. And customers can view it in near real time. The engineer in the office can see the inspections happened.

They can see if there are any anomalous bolts, and then there can be communication there and then whether an intervention is necessary. So it’s sort of really changed the way our customers think about managing their, um. They’re bolted joints.

Joel Saxum: Well, I think these are, these are the kind of innovations that we love to see, right?

Because [00:08:00] we regularly talk about a shortage of technicians, and this isn’t, I was just learning this this week too, like this is not a wind problem. This is a everywhere problem. No matter what industry you’re in. Use are short of technicians. But we’re seeing like a tool like this is developed to be able to scale that workforce as well.

Right. You don’t need to be an NDT level three expert to go and do these things. ’cause there’s a very few of those people out there. Right? Right. We know the NDT people, a lot of NDT people, and that’s a hard skillset to come by. Yeah. This can be put in the hands of any technician. Yeah, a quick training course.

Just, Hey, this is how you use your iPhone. You can check Instagram, right? Yeah. Okay. You can off figure. Yeah, have fun. See you at lunch. Um, but they can, they can make this happen, right? They can go do these inspections and you’re getting that, that, uh, data collected in the field. Centralized back to an SME that’s looking at it and you don’t have to put that SME in the field and try to scale their ability to go and travel and do all these things.

They can be in the office making sure that the, the QA, QC is done correctly. I love it. I think that that’s the way we need to go with a lot of things. [00:09:00]Uh, and you’re making it happen.

Pete Andrews: Yeah. And it’s a real kind of. F change in mindset for us. So originally when we started Ebot, we were using third party hardware.

Yeah. Which required a bit of that specialism. Yeah. A bit of care about the setup of the project, getting multiple parameters configured before you got going. And it wasn’t really something we could put in the hands of a customer.

Joel Saxum: Yeah.

Pete Andrews: Which meant Ebot scale was limited to what our own team could go and do, and regionally as well.

You know, so we’re UK based. Probably 60% of our customers are uk, but now we have this Northern Europe offshore wind is obviously on our doorstep, but then increasingly we’ve done more and more in North America, so we’ve probably been to five or six sites now in North America and expect that to be a growth market because we can, we can now ship the devices over there, give some virtual training help.

Uh, [00:10:00] people set themselves up and then that opens up that market, you know, so it’s been a real change in strategy for us, but has allowed us to have far more impact than we otherwise would just try to be a pure service.

Allen Hall: Well, let’s talk about the big problem in the states of a minute, which are the root bushing or inserts that are loose in some blades.

When you lose that pushing, you also lose the tension on the bolt that can be measured. Is that something you’re getting involved with quite a bit now because of just trying to determine how many bolts are affected and, and where we are on the safety scale of can we run this turbine or not? Is that something that EE bolt’s been looking into?

Pete Andrews: Yeah, absolutely. So I, I’d say there’s sort of two halves of what we do. There’s the, there’s the bulk wholesale monitoring of. Typically static connections to eliminate this routine retitling where it’s not needed typically, typically. But then we have these edge cases of certain [00:11:00] connections and certain platforms that have known bolt integrity problems, and we are working with clients to really, um, manage those integrity risks.

Blade stud is an absolute classic, you know, sort of, I think almost every turbine OEM on some, if not all of their platforms has got. Embedded risk into their blades, pitch bearing connections. Um, so yeah, exactly as you said, our customers are using the technology for two things really. One is to ensure the bolts have been tightened to the preload that was specified or the target window.

And quite often we find there is an opportunity to increase the preload and therefore increase the resistance to fatigue failure. So. You know, particularly on older sites where the bolts perhaps not in the condition they were on day one. Well, they definitely won’t be. Um, when people have gone and retti them, they haven’t got back to where they, they should be.[00:12:00]

So we can prove that and increase a bit of that resilience, but then also start to look for the segments around the joint where, um, the bolt might start loosening or failures are occurring, and find areas where they can really hone in. And actively manage risk. And that sort of leads to what we’ve decided to do for the next year, particularly with Blade Stud in mind, is evolve this technology.

So whilst it’s also measuring the elongation, we will do a defect scan at the same time. So you’ll monitor your blade stu, um, connection and we’re hoping that we can set the device to flag to you there and then. We believe this bulk has got a defect while you’re here, get it changed out before it fails and, and all the knock on problems, um, from there.

Joel Saxum: So what you’re just pointing to there is a, is a workflow, right? So to me that is typical [00:13:00] of some of the amazing, innovative companies in the UK that I’ve run into throughout my career. And that is, you’re a group of SMEs, you know, bolted connections. That’s what you do, right? But then you’re like, hey. If there’s a tool, we could make a tool that would make our lives a bit easier, then it’s like, well, we could make the entire industry’s lives a little bit easier as well.

So let’s iterate on that. And now you’re able to send these kits around the world to look at these things. Hey, you have a problem with this specific model. We can help you with this because we know the failure mode and we know how to look for it. Let’s do that for you. Also here, you’re doing bolt bulk measurements.

We got that for you. But it all kind of flows back to the fact that Echo Bolt is a team. A bolted connection, SMEs that are making tools and being able to also provide consulting if need be. Yeah. Right. Um, to, to an entire industry. And I think that, um, this is my take on it, right? Wind is stop number one. I think you guys are gonna do a fantastic year, but there’s a lot of, uh, opportunity out there in bolted [00:14:00] connections as well.

Allen Hall: A tremendous amount blade bolts being broken from defects in the crystalline structure. What appears to be a more. Rapidly developing issue across fleets that I’ve seen. I went to a farm this summer and the number of blade bolts that were there on the table that were broken on the conference room table was And the whiteboard office.

Yeah. Yeah. This one,

Joel Saxum: this one.

Allen Hall: Your hard head is not gonna protect you from this one. It’s, it’s, it was this, um, I couldn’t imagine the amount of time they were spending hunting these things down. And of course, the only way they were finding ’em was they were broken. You like to catch ’em before they break because it becomes

Joel Saxum: a safety risk.

Just not too long ago we saw an insurance case where there’s an RCA going on and it is pointing at an entire tower came down. Right. And it is pointing at a mid, mid tower section bolted connection. How often do you guys run into those problems? Or are you contacted by insurance companies or anything like that to, to take a peek at those?

Pete Andrews: We haven’t done anything directly for insurance [00:15:00]companies, but we have been engaged by. Engineering consultancies that are doing RCA type activities. Okay. Um, things like at the end of defect liability periods mm-hmm. A customer has, has seen, they’ve had a lot of, uh, issues from an OEM, maybe an OE EM has offered a modification or an upgrade, assessing whether that upgrade is actually solved the problem or not.

We’ve got involved in, um, but the tower. Issue specifically. It’s actually very rare we find, um, problems with tower connections, but where we do is often where they haven’t achieved good flange flatness, ah, during installation or the bolts have been, let’s say, left out in the elements for a period and lubrication has been, has deteriorated before the bolt’s been installed.

So there are cases out there, but what I would say is. [00:16:00] To think about your whole life cycle, so ensure the bolt’s installed correctly and we can help with that with a QA to say, yes, this torque or tightening method has got you to the load that you want. Do some through life monitoring, but often if you install it correctly, it will it’s operational life.

You will have very little concern. But then in the UK market, we’re increasingly getting involved again at the end of life, right? Life extension where life extension turbines are 20, 25 years old. How does an operator make a decision to carry on running without replacing all bots? Um, and that’s where increasingly we being asked to use the technologist just to say, actually the joint is fine.

The bolts have run in a good, um, operational envelope. Run them on. Don’t replace a hundred percent of them like you might have been recommended to from your, um, yeah. Turbine supplier side. [00:17:00]

Allen Hall: So Pete, if someone’s doing a repower where they’re basically putting a new one in the cell on an existing tower, they’re making a lot of assumptions about all the bolts from the ground up that they’re gonna be okay.

And I know we’re talking about that. We’re in a lot of installations where. If the turbine has gone through a repowered or two. So now those bolts are 20 years old. Yeah. And trying to get ’em to

Joel Saxum: 30 35. 35

Allen Hall: 40. Yeah. I don’t know what they’re doing. By those bolted connections. Are they just like replacing the bolts?

Are they hitting ’em with a hammer again? Is that the, yeah,

Pete Andrews: I mean, they might replace ’em, but you’ve got a problem with the foundation bolts. ’cause they’re obviously often anchor bolts set into concrete, so you have to reuse them and. With the projects, both in wind and in process power industry with the chimney stacks to try and ascertain whether foundation bolts that are set into concrete are still suitable for operations.

So look for corrosion losses, look for [00:18:00] defects. Um, so yeah, they’re all things that need thinking about before you just make the snap decision to repower. But I think

Joel Saxum: a lot of that, uh, going back to a couple minutes ago, you were talking about at the commissioning phase, making sure that you have proper qa, QC of how these things were installed day one, and then making sure that before commissioning of a turbine, they’re checked.

I think that’s really important. We’re starting to see that in the blade world now too, where we’ve been talking about it for a long time, and now when you talk to operators, they’re like, we’re getting inspections done on the blades before they’re hung. Or at the factory before they’re hung. After they’re hung.

Like they want a good foundation baseline. Are you seeing that in the bolted connection world too?

Pete Andrews: Yes. Sort of. It’s just emerging for us. What we’ve found is, so most of our customers are in the operational phase ’cause they are the ones feeling the pain. Yeah. Of the routine retitling work. When they do major components, they sometimes engage us to come and say, can you check [00:19:00] before and after the blade was removed?

What was it? Before we took it off from a a bolt load perspective, what is it afterwards? Can you then recheck after 500 hours When we retalk it? And what we’ve seen there often is the initial install hasn’t got them to where they needed to be and they’ve had to go and do the break in maintenance or the 500 hour REIT to get the bolts to the right load.

So one of the questions that we have is whether. Some of the defects are actually being initiated very early on in that initial running in period and whether if, if actually you’d taken the time at, at the point of assembly to make sure you were correct, whether that avoids some of the knock on integrity concerns.

So yeah, it’s interesting area.

Allen Hall: Well, bolts are what hold wind turbines together and you better know you have the right. Tension and [00:20:00] torque on your bolts to get to the lifetime of the wind turbine and to, and to check it once in a while. And I know there’s a lot of operators I can think of right now in the United States that are sort of doing that job somewhat.

I I think they have missed out on opportunities to save a lot of money and to call it echo bolt. How do people get ahold of you? Because that’s one thing I run into all the time. Like, Hey, hey, you gotta talk to Ebol, call Ebol. How do they get ahold of you?

Pete Andrews: So the easiest ways are via our website. Which is echo bolt.com.

Um, LinkedIn, you’ll find us at Echo Bolt on LinkedIn. Reach out. Our email would be info@cobolt.com. So any of those route and you’ll, uh, reach me and the team and more than happy to speak to you about any of your faulting concerns or problems. We are, uh, yeah, we’re passionate about your problems.

Allen Hall: Pete, thank you so much for being on this podcast.

I, it is great to actually see you in person and see the bolt wave technology. It’s really [00:21:00] impressive. So anybody out there that needs bolt tensioning to checking tools, you need to get ahold of Pete at Echo Bolt and get started today. Thank you Pete. Thanks guys. It’s great to be here.

EchoBolt’s BoltWave Makes Bolt Inspections Easy

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Renewable Energy

Carbon Capture and Synthetic Fuels

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As we’ve noted in the past, the idea of capturing CO2 from the atmosphere is completely unfeasible, since 99.96% of the air around is something other than CO2 (mostly nitrogen).  However, there are environments that change this equation radically, cement plants being one of them, where the concentration of CO2 emissions is as high as 30% (versus .04%).

Now, this brings the subject of synthetic fuels into the realm of possibility.  Sure, if you want to make gasoline, diesel, and jet fuel, you’ll need two other things: hydrogen (which can come from electrolyzing water), and a considerable amount of energy, as these processes are heavily endothermic, meaning that energy must be supplied from external sources.

The good news is that we have enormous amounts of off-peak wind and nuclear that are wasted every day.  Please see: Doty WindFuels.

Carbon Capture and Synthetic Fuels

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Renewable Energy

What Trump Is Actually Doing

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With each passing day, there are fewer and fewer American voters who believe the bullshit at left.

Is Trump working hard to stay out of prison? Enrich himself and his family?  Of course.

Could be possibly care less about anything else? Obviously not.

What Trump Is Actually Doing

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