Renewable Energy – Live Laugh Love Do http://livelaughlovedo.com A Super Fun Site Thu, 13 Nov 2025 22:44:58 +0000 en-US hourly 1 https://wordpress.org/?v=6.9 Solar Energy Today http://livelaughlovedo.com/embracing-solar-energy-today/ http://livelaughlovedo.com/embracing-solar-energy-today/#respond Thu, 13 Nov 2025 16:18:39 +0000 http://livelaughlovedo.com/embracing-solar-energy-today/ As the world shifts towards sustainability, the surge in solar energy adoption is transforming how we consume power. With more homes and businesses harnessing solar solutions, understanding current trends and regional leaders in this field is vital for anyone considering this energy option.

What You Will Learn

  • Solar energy now accounts for approximately 4% of total electricity generation in the U.S.
  • California leads in solar adoption, with over 25% of homes equipped with solar panels.
  • China is the world’s largest producer of solar energy, showcasing vast installations nationwide.
  • Solar farms contribute to economic development by creating jobs and improving local infrastructure.
  • Technological advancements and energy storage solutions are key to enhancing solar efficiency and accessibility.

Understanding Current Trends in Solar Energy Adoption

As we move into an era where sustainability takes center stage, understanding current trends in solar energy adoption is crucial. The data shows a significant surge, with the National Renewable Energy Laboratory (NREL) and the Energy Information Administration (EIA) reporting continuous growth in installations across the globe. It’s fascinating to see how these trends are reshaping energy consumption patterns.

Modern rooftop solar panels on a house with a clear blue sky

In fact, both organizations highlight that solar energy now accounts for a substantial portion of new electricity generation capacity. This shift not only signifies a move towards cleaner energy but also reflects a growing consumer awareness about the benefits of solar power.

Key Statistics on Solar Energy Adoption Rates

Let’s dive into the numbers that illustrate this growth. According to NREL, the cumulative solar capacity in the U.S. has exceeded 100 gigawatts (GW), with millions of homes now powered by solar. Here are some key statistics to consider:

  • Over 3 million solar installations in the U.S.
  • Solar energy contributing to approximately 4% of total electricity generation.
  • Projected growth rate of 20% annually over the next five years.

Such statistics not only demonstrate the rapid adoption but also the potential for further expansion in the coming years. This shift towards solar energy is not just a trend; it’s becoming a fundamental part of our energy infrastructure, as detailed in reports on clean energy progress in the United States.

Regional Adoption Patterns: Who’s Leading the Way?

When it comes to solar energy, certain regions are clearly leading the charge. States like California have been pioneers in solar adoption, boasting the highest installation rates in the nation. Additionally, countries like China are making remarkable strides in solar energy expansion. Here’s a quick look at the leaders in solar adoption:

  • California: Over 25% of homes equipped with solar panels.
  • China: World’s largest producer of solar energy, with vast installations nationwide.
  • Germany: Known for its aggressive renewable energy policies and widespread solar usage.

Emerging markets are also starting to show significant potential. Countries in Africa and South Asia are increasingly adopting solar solutions, driven by both necessity and innovation.

The Role of Solar Farms in Renewable Energy Growth

Solar farms play a critical role in the adoption of renewable energy. They not only contribute significantly to the energy grid but also provide economic benefits to local communities. By harnessing large areas of land, solar farms can produce massive amounts of energy efficiently. Here are some key points about their impact:

  • Increased renewable energy shares in local and national grids.
  • Job creation in construction and maintenance of solar facilities.
  • Community investment and infrastructure improvement from solar projects.

The significance of solar farms goes beyond just energy production; they are a catalyst for economic development and community engagement, making them essential in our renewable energy future.

We Want to Hear From You!

What factors do you think are most important in driving solar energy adoption in your area? Share your thoughts below:

Frequently Asked Questions About Solar Energy Adoption

What percentage of total electricity generation in the U.S. does solar energy account for?
Solar energy currently accounts for approximately 4% of total electricity generation in the U.S.
Which U.S. state leads in solar adoption?
California leads in solar adoption, with over 25% of homes equipped with solar panels.
Which country is the world’s largest producer of solar energy?
China is the world’s largest producer of solar energy, demonstrating vast installations nationwide.
What are the economic benefits of solar farms?
Solar farms contribute to economic development by creating jobs in construction and maintenance, and by improving local infrastructure through community investments.
What are the key factors enhancing solar efficiency and accessibility?
Technological advancements and energy storage solutions are crucial for enhancing solar efficiency and making it more accessible.

Summary of Key Insights on Solar Energy Adoption

As we’ve explored, solar energy adoption is experiencing a significant surge across various regions. Key statistics show a steady increase in installation rates, with states like California leading the charge. Additionally, we’ve seen how environmental and financial motivations, along with supportive policies, are driving this growth.

Vast solar farm under a sunny sky, showing rows of solar panels

Looking ahead, technological advances and the expansion of solar farms play critical roles in shaping the future of solar energy. With the right incentives and community support, we can expect more homeowners and businesses to embrace solar energy solutions!

  • Current Trends: Adoption rates are rising, particularly in regions with strong state policies.
  • Motivations: Cost savings and environmental benefits are key drivers.
  • Future Directions: Technological innovations and energy storage solutions will enhance efficiency and accessibility.

Taking the Next Steps Towards Solar Energy Adoption

Now that we’ve discussed the landscape of solar energy, I encourage you to consider how solar options can benefit your home or business. Adopting solar energy not only contributes to a sustainable future but can also lead to significant savings on energy bills. To get started, research local solar providers, assess your energy needs, and explore potential financing options.

There are many resources available to guide you through this journey. Whether you’re interested in community solar programs or need help navigating incentives, there’s support out there for you!

Resources for Understanding Solar Energy Policies

Finding reliable information on solar energy policies can be challenging, but there are excellent resources to help you understand how these policies impact local adoption rates. Here’s a list of places to explore:

  • Government websites: Check your state’s energy office for up-to-date policy information.
  • Nonprofit organizations: Groups focused on renewable energy often publish reports and guides.
  • Local solar providers: Many offer educational materials about incentives and programs.
  • Community forums: Engage with others who are knowledgeable about local solar policies.

By tapping into these resources, you can better grasp the landscape of solar energy policies and make informed decisions about adoption!

Recap of Key Points

  • Current Trends: Solar energy adoption is significantly rising, particularly in regions with robust state policies.
  • Key Statistics: Over 3 million solar installations in the U.S. and projected growth of 20% annually over the next five years.
  • Regional Leaders: California, China, and Germany are leading in solar energy adoption, with emerging markets in Africa and South Asia showing potential.
  • Role of Solar Farms: Solar farms enhance renewable energy shares, create jobs, and invest in local communities.
  • Future Directions: Technological advancements and energy storage solutions will improve the efficiency and accessibility of solar energy.
  • Resources: Leverage government websites, nonprofit organizations, local providers, and community forums for reliable information on solar energy policies.
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Shaping Our Energy Future Together http://livelaughlovedo.com/shaping-our-energy-future-together/ http://livelaughlovedo.com/shaping-our-energy-future-together/#respond Fri, 07 Nov 2025 15:54:00 +0000 http://livelaughlovedo.com/2025/11/07/shaping-our-energy-future-together/

The global shift toward sustainable energy is not just a trend; it’s a movement that is reshaping our future. With climate change accelerating and resources dwindling, understanding the pathways to a cleaner energy future is imperative for everyone.

What You Will Learn

  • The significance of transitioning from fossil fuels to renewable energy sources for climate resilience.
  • Key drivers of change in energy systems, including technology, policy, and consumer behavior.
  • How climate change is reshaping global energy policies and necessitating sustainable practices.
  • Practical steps businesses can take to adopt renewable energy and enhance sustainability efforts.
  • Actions individuals can implement to contribute to a sustainable energy future, including energy efficiency and community engagement.
  • The role of electric vehicles in reducing emissions and their financial benefits for users and businesses.

Key Elements of the Energy Future

The energy future is shaped by several critical factors, impacting how we consume and produce energy. Below, we highlight the main drivers and actionable steps for businesses and individuals.

Key Drivers of Change

  • Technological Innovation
  • Government Policies
  • Consumer Demand

Climate Change Influence

  • Increased Renewable Investment
  • GHG Emission Regulations
  • International Collaborations

Business Contributions to Renewables

  • Invest in Solar/Wind
  • Energy Efficiency Programs
  • Employee Engagement
  • Clean Energy Partnerships

Individual Sustainability Actions

  • Reduce Energy Consumption
  • Switch to Green Providers
  • Community Participation
  • Advocate for Clean Policies

Electric Vehicle (EV) Benefits

  • Lower Operating Costs
  • Government Incentives
  • Decreased Maintenance
  • Cleaner Environment

Understanding the Energy Future: Trends and Trajectories

As we look toward our energy future, it’s crucial to grasp what that future entails and why it holds such significance. The energy future involves the various pathways we can take to meet our energy needs sustainably, which is critical for both economic stability and environmental preservation. Understanding these trends helps us foresee challenges and opportunities that can impact our daily lives and business operations. If you’re interested in personal growth and making positive changes, consider exploring how to tackle life’s messes to improve your overall well-being.

At its core, the energy future isn’t just about new technologies; it’s about reshaping how we think about energy consumption and production. This shift is paramount since our choices today will determine the health of our planet for generations to come.

Defining the Energy Future and Its

solar panels on roof
Shaping Our Energy Future Together

Importance

To define the energy future, we must consider the various factors that influence energy consumption and innovation. This includes advancements in technology, regulatory changes, and societal shifts toward sustainability. Energy transition refers to the global movement away from fossil fuels toward renewable sources, which is essential for reducing the impacts of climate change and fostering economic resilience.

  • Focus on renewable energy sources such as solar, wind, and hydro.
  • Increase energy efficiency in buildings and transportation.
  • Encourage the adoption of electric vehicles to reduce emissions.

By understanding these elements, businesses like ours can better align our strategies with the evolving landscape and contribute to more sustainable practices.

Key Drivers of Change in Energy Systems

Several key drivers are pushing the energy systems toward a more sustainable future. These include technological advancements, policy shifts, and changing consumer preferences. Here are some notable factors:

  • Technological Innovation: Breakthroughs in energy storage and generation are revolutionizing how we utilize resources.
  • Government Policies: Incentives for renewable energy and stringent regulations on emissions are steering the market.
  • Consumer Demand: Growing awareness around climate issues is prompting consumers to choose cleaner options.

Each of these drivers plays a vital role in shaping our energy policies and practices, pushing us toward a more responsible and sustainable energy future. For a deeper dive into financial trends and their potential warnings, you might find this article on housing market recession warnings insightful.

The Role of Climate Change in Shaping Energy Policies

Climate change has emerged as a dominant force in determining energy policies worldwide. As the effects of global warming become increasingly evident, it has become necessary to rethink our energy strategies. This urgency drives the integration of sustainable practices across all sectors.

  • Increased investment in renewable energy technologies.
  • Development of regulations aimed at reducing greenhouse gas emissions.
  • Collaborative international efforts to address climate change challenges.

By acknowledging climate change’s impact, businesses and governments alike can work together to create effective energy policies that not only mitigate risks but also foster economic growth. It’s an exciting time to be part of this transformation, and I believe our collective actions can lead to lasting change!

Pro Tip

Did you know? Adopting renewable energy sources not only reduces your carbon footprint but can also lead to significant cost savings over time. Businesses that invest in solar panels or wind energy can see a decrease in energy bills while enhancing their brand image as environmentally responsible. Make the switch today and contribute to a more sustainable energy future!

Practical Steps for Engaging with the Energy Future

As we navigate the evolving landscape of energy, it’s vital for businesses and individuals alike to take actionable steps toward a sustainable future. Engaging with renewable energy trends is not just a choice; it’s becoming a necessity in our daily operations and lifestyle. Here’s how we can all contribute to a more sustainable energy future.

For businesses, leveraging these trends means adopting innovative practices and integrating renewable energy sources. This proactive approach not only enhances corporate responsibility but also leads to operational efficiencies and potential cost savings in the long run!

What Businesses Can Do to Leverage Renewable Energy Trends

  • Invest in renewable energy sources like solar and wind.
  • Implement energy efficiency programs to reduce consumption.
  • Engage employees in sustainability initiatives.
  • Partner with organizations focused on clean energy solutions.

By taking these steps, businesses can not only decrease their carbon footprint but also position themselves as leaders in the sustainability movement. For instance, many companies are now using solar panels to power their operations, dramatically cutting down on electricity bills while enhancing their image as environmentally friendly!

Empowering Individuals: How to Contribute to a Sustainable Energy FutureElectric car charging at a station, displaying blue vehicle with a plugged-in charger against a white background.

Individuals play a crucial role in shaping a sustainable energy future. Each person can make impactful changes that collectively lead to significant progress. Simple actions at home can lead to larger community benefits.

  • Reduce energy consumption by using energy-efficient appliances.
  • Consider switching to renewable energy providers.
  • Participate in community clean-up events and sustainability workshops.
  • Advocate for local policies promoting clean energy.

When individuals take these actions, it sends a strong message to businesses and policymakers about the importance of sustainability. It’s about creating a ripple effect that encourages others to join in! Each step, no matter how small, counts.

Electric Vehicles: A Guide to Adoption and Benefits

The transition to electric vehicles (EVs) is a pivotal part of the energy future. Not only do they help reduce greenhouse gas emissions, but they also represent a shift toward cleaner transportation options. Understanding their benefits and how to adopt them is essential for both individuals and businesses. For further insights into practical steps for a healthier lifestyle, explore these 10 healthy no-bake energy bites.

  • Lower operating costs compared to traditional fuel vehicles.
  • Access to government incentives for EV purchases.
  • Decreased maintenance costs since EVs have fewer moving parts.
  • Promotion of a cleaner environment through reduced emissions.

Investing in electric vehicles is not just about personal choice—it’s also a smart business decision. Many companies are beginning to transition their fleets to EVs, which can lead to substantial savings over time! Plus, supporting this shift contributes to a larger goal of cleaner air and a healthier planet.

Frequently Asked Questions about the Energy Future

What is the “energy future” and why is it important?

The “energy future” refers to the pathways we take to meet our energy needs sustainably, moving away from fossil fuels toward renewable sources. It is important for economic stability, environmental preservation, and mitigating climate change impacts for future generations.

What are the key drivers of change in energy systems?

Key drivers include technological innovation (e.g., in energy storage and generation), government policies (e.g., incentives for renewables, emission regulations), and changing consumer demand driven by increased awareness of climate issues.

How does climate change influence energy policies?

Climate change is a dominant force, necessitating a rethink of energy strategies. It drives increased investment in renewable energy technologies, the development of greenhouse gas emission regulations, and collaborative international efforts to address global warming.

What practical steps can businesses take to leverage renewable energy trends?

Businesses can invest in renewable energy sources like solar and wind, implement energy efficiency programs, engage employees in sustainability initiatives, and partner with organizations focused on clean energy solutions.

How can individuals contribute to a sustainable energy future?

Individuals can contribute by reducing energy consumption (e.g., using energy-efficient appliances), switching to renewable energy providers, participating in community sustainability efforts, and advocating for clean energy policies.

What are the benefits of adopting electric vehicles (EVs)?

Benefits of EVs include lower operating costs compared to traditional fuel vehicles, access to government incentives for purchases, decreased maintenance costs due to fewer moving parts, and promotion of a cleaner environment through reduced emissions.

Recap of Key Points

Here is a quick recap of the important points discussed in the article:

  • The energy future emphasizes the transition from fossil fuels to renewable energy sources like solar and wind.
  • Key drivers of change include technological innovation, government policies, and consumer demand for sustainable options.
  • Climate change is a critical factor influencing energy policies globally, necessitating sustainable practices.
  • Businesses can leverage renewable energy trends by investing in clean energy solutions and engaging employees in sustainability initiatives.
  • Individuals can contribute by using energy-efficient appliances, supporting renewable energy providers, and advocating for clean energy policies.
  • Adopting electric vehicles can lead to lower operating costs, government incentives, and a cleaner environment.

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Trump administration may block another offshore wind farm http://livelaughlovedo.com/trump-administration-may-block-another-offshore-wind-farm/ http://livelaughlovedo.com/trump-administration-may-block-another-offshore-wind-farm/#respond Wed, 03 Sep 2025 19:07:44 +0000 http://livelaughlovedo.com/2025/09/04/trump-administration-may-block-another-offshore-wind-farm/ [ad_1]

President Donald Trump’s administration is reconsidering federal approval of Avangrid’s planned New England Wind project off the coast of Massachusetts, according to a court filing on Wednesday.

The legal maneuver is the latest move by U.S. authorities to stymie development of offshore wind energy, which Trump has called ugly, expensive, and unreliable. Last week, the administration also said it was reconsidering approval of SouthCoast Wind, another planned Massachusetts project.

Attorneys for the Department of Justice said they would move by October 10 to vacate the U.S. Bureau of Ocean Energy Management’s approval of the New England Wind construction and operations plan.

The filing came in a lawsuit brought earlier this year in U.S. District Court for the District of Columbia by local groups and individuals opposed to offshore wind development. The suit alleges the government violated federal environmental laws by approving the project.

Avangrid, which is owned by Spanish power company Iberdrola, declined to comment.

New England Wind was approved by former President Joe Biden’s administration in 2024. The project, once built, was expected to be able to produce enough electricity to power 900,000 homes.

Representatives for ACK for Whales, the lead plaintiff in the lawsuit, could not immediately be reached for comment.

—Nichola Groom and Laila Kearney, Reuters

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NLC Energy, manure-to-gas company, files for Chapter 11 bankruptcy http://livelaughlovedo.com/nlc-energy-manure-to-gas-company-files-for-chapter-11-bankruptcy/ http://livelaughlovedo.com/nlc-energy-manure-to-gas-company-files-for-chapter-11-bankruptcy/#respond Sun, 17 Aug 2025 18:09:53 +0000 http://livelaughlovedo.com/2025/08/17/nlc-energy-manure-to-gas-company-files-for-chapter-11-bankruptcy/ [ad_1]

NLC Energy has a business model that sounds a bit like a wizard turning rocks into gold or a certain biblical fellow who could famously turn water into wine. 

The company builds, owns, and operates renewable natural gas facilities that convert organic waste into useful commodities like clean energy, organic nutrients, clean water, organic liquid carbon dioxide, and dry ice.

Organic waste does not solely mean animal poo. It can also include food waste, grass trimmings, and more. It’s a proven process that should be a key part of building a United States that’s not dependent upon foreign oil.

NLC Energy creates renewable energy.

“Through the process of anaerobic digestion, we harvest the energy stored in organic waste sourced from farms and food manufacturers,” it shared.

By upcycling waste into useful commodities, the company offers a way for waste generators to reduce their carbon footprint and attain ESG goals.

“Low-carbon, renewable natural gas replaces higher-carbon fossil fuels that are used in transportation, by utilities, and by manufacturers. Clients and partners advance towards meeting net-zero carbon emission objectives,” NLC shared on its website.

Those are noble goals that are perhaps not fully embraced by the current political climate.

Manure is NLC Energy’s primary feedstock. 

Image source: Shutterstock

NLC Energy files for Chapter 11 bankruptcy protection

NLC Energy Denmark LLC, a renewable energy company specializing in organic waste digestion for biogas production, has filed for Chapter 11 bankruptcy protection in the Eastern District of Wisconsin. The company, formerly known as NEW Organic Digestion LLC, operates a facility in Denmark, Wisconsin, while maintaining its principal place of business in Nashua, New Hampshire.

The company filed its voluntary petition on August 16 with a plan already prepared, suggesting a strategic approach to its restructuring efforts. The filing indicates assets valued between $50 million and $100 million, with liabilities ranging from $100 million to $500 million.

NLC Energy reported having between 50 and 99 creditors and stated that funds will be available for distribution to unsecured creditors after administrative expenses are paid.

More Bankruptcy:

The company has filed a restructuring document with the bankruptcy court that was not publicly available on August 16. 

Welles Hatch, NLC Energy’s Chief Financial Officer, signed the petition, which was filed by attorney Jerome R. Kerkman of Kerkman & Dunn.

NLC Energy wants to save the world, literally

NLC Energy has presented itself as part of the solution to the problem of global warming. It’s doing that in a practical, not ideological, way. 

“With more people on the planet, we burn more fuel to regulate temperatures, emitting more carbon, which further warms the atmosphere, requiring yet more energy to regulate temperatures. The vicious cycle accelerates warming, seemingly without remedy. 

What if we could access energy while decelerating our emission of carbon? NLC Energy’s process captures methane before it emits to the atmosphere, converting it to fuel, which, when burned, releases less potent carbon into the atmosphere. With disruptive technology, we can meet the energy needs of the planet while bending the carbon curve towards true neutrality.”

The company has been working toward that while literally paying farmers for their unused manure. That’s a solution to a problem that also comes with added revenue. 

NLC Energy uses dairy manure as its primary feedstock. Manure supplies are sourced from dairy farms in the region near our facility, based in the heart of dairy production in Northeastern Wisconsin.

“From a business perspective, we effectively borrow the farm’s manure for a fee per gallon of manure collected. Once manure has been through the digestion process, it is returned to the farm in amounts equal (gallon for gallon) to that which was collected. The farm is paid for each gallon collected, with the assumption that a modern dairy farm is generating approximately 30 gallons of manure, per cow, per day,” it shared on its website. 

NLC Energy pays for all manure transport, including trucking of the manure from the farm and its subsequent return to the farm. 

In addition, the company will make capital improvements on the farm to facilitate manure collection. Capital improvements may include reception tanks, agitators, pumps, fill stand and other necessary infrastructure on the farm to allow for daily collection and return of manure.

Related: Beyond Meat headed to Chapter 11 bankruptcy

NLC Energy Denmark Chapter 11 bankruptcy at a glance:

  • NLC Energy, a renewable natural gas company converting manure and food waste into clean energy, has filed for Chapter 11 bankruptcy.
  • Assets: $50M–$100 million; Liabilities: $100M–$500 million; lists 50–99 creditors.
  • CFO Welles Hatch signed the petition, filed by attorney Jerome R. Kerkman.
  • Business model: Pays farmers for manure, processes it via anaerobic digestion, returns residue, and covers transport plus farm infrastructure upgrades.
  • Company positioned itself as a climate solution, capturing methane before release and supporting ESG/net-zero goals.
  • NLC has filed a bankruptcy plan, but it has not been made public yet. 

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The massive blackout in Spain, Portugal, and France exposed a global power crisis. Now what? http://livelaughlovedo.com/the-massive-blackout-in-spain-portugal-and-france-exposed-a-global-power-crisis-now-what/ http://livelaughlovedo.com/the-massive-blackout-in-spain-portugal-and-france-exposed-a-global-power-crisis-now-what/#respond Tue, 29 Jul 2025 10:40:57 +0000 http://livelaughlovedo.com/2025/07/29/the-massive-blackout-in-spain-portugal-and-france-exposed-a-global-power-crisis-now-what/ [ad_1]

On the morning of April 28, large parts of Spain, Portugal, and southern France went dark. A massive blackout left millions without power, halting trains mid-track, cutting mobile networks, and rattling the foundation of one of Europe’s most advanced energy grids.

In the days that followed, experts and media outlets scrambled to explain what had happened. Was it a cyberattack? Human error? A structural failure? More than two months later, official investigations are ongoing. Early statements by the Spanish government confirmed that although no single cause has emerged, it wasn’t a cyberattack.

While the exact cause remains under review, one thing the energy industry agrees on is clear: This can’t keep happening.

“A relentless cycle of evolution”

“Power systems are not only extremely complex, they are also in a relentless cycle of evolution—with new parts coming in and old ones going out—all while remaining stable and dependable 24/7,” says Richard Schomberg, special envoy for smart electrification at the International Electrotechnical Commission (IEC).

The problem is that many of today’s systems weren’t built for this era of energy evolution. As traditional power plants go offline and renewables come online, grid stability becomes harder to guarantee. What once worked isn’t working anymore.

“There are many causes for failure in an electric system,” Schomberg notes, “from design limitations to user error to cyberattack to a sudden uptick in use.” The goal of a resilient grid, he says, should be to “divide and conquer”—isolating failing parts of the network quickly to avoid destroying critical infrastructure. But in practice, this often results in brownouts or blackouts.

The April event wasn’t just a wake-up call for Europe. It was a warning for the world. And it echoed similar large-scale disruptions in the U.S. (notably in Texas in 2021), Pakistan, and parts of Africa, where fragile infrastructure, outdated protocols, or extreme weather have repeatedly revealed how brittle many modern grids remain.

“It’s not just about having more power”

According to energy experts, one of the biggest culprits in grid fragility isn’t malicious intent; it’s poor planning. Anders Lindberg, president of Helsinki-based Wärtsilä Energy, points to the growing gap between ambition and infrastructure. “As we bring more renewables online, we’re not replacing the stability that traditional power plants used to provide,” he explains, noting that stability once served as a kind of “shock absorber” for the grid. When it disappears, even small disruptions can spiral into systemic failure.

Wärtsilä’s approach focuses on fast-ramping engines and hybrid systems that can stabilize the grid when the wind dies down or clouds roll in. “In Scotland, for example, we partnered with Zenobe to deliver grid-forming batteries that can restart the system if it goes down,” Lindberg says. Wärtsilä’s systems also have “black start” capabilities, meaning they don’t depend on external power to turn on.

While large utilities play a role, startups are also part of the puzzle. Norway-based Heimdall Power uses sensor technology and AI to monitor grid infrastructure in real time. “With our sensors, you get actual capacity data from the grid, not static limits based on weather or assumptions,” CEO Jørgen Festervoll tells Fast Company. “That kind of real-time visibility can mean the difference between targeted intervention and total system collapse.”

Conventional grid monitoring typically relies on fixed thermal limits and weather-based estimates, which often underrate the actual capacity of power lines. Heimdall’s sensors measure real-time line temperature, current, and sag—allowing operators to safely optimize capacity without overloading.

Festervoll adds that events like the Iberian blackout are no longer rare anomalies; they’re signals of deeper grid instability. “It’s not just about having more power,” he says. “It’s about knowing where that power is going and when things might go wrong.”

“You need storage that can scale with demand”

For many experts, the grid of the future isn’t centralized. It’s flexible, distributed, and intelligent. This is where battery innovation comes in. While not part of the blackout investigation, companies like Morrow Batteries are positioning themselves to help solve the intermittency problem at scale.

Morrow Batteries, which aims to reduce battery costs by 50% while cutting emissions, is building a factory in Norway with a target capacity of 43 gigawatt-hours focused on high-efficiency lithium-ion cells. CEO Lars Christian Bacher says “scale and proximity” are what make local solutions like Morrow important: “You can’t just have generation—you need storage that can scale with demand.”

According to the “Net Zero Emissions by 2050” scenario of the International Energy Agency, grid-scale battery storage capacity needs to grow from around 16 gigawatts in 2021 to 680 gigawatts by 2030—a roughly 44-fold increase—to align with net-zero targets agreed to at COP28, the 2023 U.N. climate summit in Dubai.

But technology alone won’t solve everything. The rules of the grid also need to change. Without systemic reform, even the best batteries can’t deliver the results they’re built for.

“Many grid protocols were written for a world of centralized, fossil-fuel power,” Wärtsilä’s Lindberg says. “They don’t account for the unpredictability of wind or solar. You can have the best tech, but if the regulations don’t allow it to respond fast enough, you still fail.”

Wärtsilä, for example, is working with regulators to modernize system response and ensure decentralized assets—like batteries and flexible engines—can step in when needed. The company’s recent hybrid system agreement in Curaçao and its support for Texas grid resilience during the 2021 winter blackout are proof points.

“We have the tools”

Globally, the cost of blackouts is rising. The U.S. Department of Energy projects that by 2030 the United States could experience more than 800 hours of blackouts per year, up from just a handful today.

If current infrastructure and resilience investments don’t keep up, that reality could become grimmer. Add climate volatility to the equation—with more storms, heat waves, and energy demand surges—and the economic stakes grow even higher.

Building for resilience doesn’t only mean faster restoration. It means designing systems that can avoid outages in the first place. A 2024 study by the USC Price School emphasized that investments in power grid resilience are more cost-effective than repeated recovery efforts. The researchers found that “a dollar spent on resilience tactics could avoid several dollars in future outage costs,” particularly in regions prone to extreme weather or infrastructure failure. These tactics range from undergrounding power lines and strengthening substations to integrating decentralized energy systems.

And resilience isn’t only a matter of hardware—it includes coordination, visibility, and smarter protocols that can isolate, contain, and correct anomalies before they escalate.

Yet there’s hope.

“We have the tools. We have the technology,” Lindberg says. “What gives me hope is that countries are starting to take a more pragmatic view, focusing not just on cutting carbon but on building systems that can handle stress.”

IEC’s Schomberg agrees, stressing that standardization will be key: “Energy designs and local constraints will vary, but all systems need technical solutions to monitor, optimize, and stabilize. That’s where IEC standards come in.”

The April blackout in the Iberian Peninsula was a flashpoint, but it shouldn’t be the final word. If anything, it exposed just how fragile our energy systems are when ambition outruns readiness. The next question isn’t whether there will be another blackout, but whether we’ll be ready when it comes.


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How Much Energy Is in Lightning? http://livelaughlovedo.com/how-much-energy-is-in-lightning/ http://livelaughlovedo.com/how-much-energy-is-in-lightning/#respond Sun, 06 Jul 2025 20:33:01 +0000 http://livelaughlovedo.com/2025/07/07/how-much-energy-is-in-lightning/ [ad_1]

Lightning is the discharge of electricity caused by an imbalance between the positive and negative charges that build up in a thundercloud. Most lightning flashes occur between or within clouds, but about 40 million lightning strikes hit the ground in the United States each year, according to the Centers for Disease Control and Prevention, which tracks lightning strike injuries and deaths.

Is it possible to harness that energy to power entire communities? Here, we explore that question.

Amount of Energy in Lightning

Lightning produces 10 times more electricity than flows on high-tension wires.

It also produces heat energy hotter than the surface of the sun, and sound energy (thunder) that can travel 25 miles.

While only lasting a millisecond, a flash of lightning is thought produce up to 10 gigawatts (GW) of electricity, which would be a sixth of the capacity of all the rooftop solar panels in the U.S. in 2021. Capturing that energy, however, is not an easy task.

Did You Know?

A single bolt of lightning can contain up to a billion volts and about 100,000 or more amps of electricity.

Can We Harvest Lightning Energy?

Lightning carries or produces three forms of energy: electricity, heat, and sound. In recent years, scientists have explored the questions:

  • What if we could store that electricity to charge all the electric vehicles soon to dominate our roads?
  • Or capture its intense heat to produce enough steam to run a turbine?
  • Or convert enough of the sound to generate the electricity needed to produce carbon-free hydrogen fuel?

Capturing Electricity

Various attempts have been made using high-voltage switching circuits and magnetic capacitors to capture and store lightning energy. Several patents both pending and active describe systems that could turn lightning into electricity. Still, though, none of these systems are being used—at least widely.

As one study puts it, “this is not a complex scientific undertaking, like fusion reactors or nuclear facilities.” Indeed, Benjamin Franklin got us halfway there with the invention of lightning rods, which attract and capture lightning and direct it into the ground. The other half—taming it—is the hard part.

Earth acts as an electrical ground because it’s large enough to absorb an unlimited amount of electrical current with minimal effect.

The challenge comes in stepping down the energy carried in a lightning bolt to safe levels.

The electricity grid already works this way: High-tension transmission lines coming from power plants carry electricity at 345,000 volts, but through multiple substations, the electricity is stepped down to regional levels and then to neighborhood levels, until power lines into residences carry a mere 120 volts.

Yet stepping a lightning bolt down from millions of—up to a billion—volts to a safer level is a more monumental task, one yet to be achieved.

Harvesting Heat

According to the National Oceanic and Atmospheric Administration, the energy from lightning heats the air briefly to around 50,000 degrees Fahrenheit—hotter than the surface of the sun.

Recent advances in capturing heat and turning it into electricity may suggest a way to harvest lightning’s mega-heat. While magnets (central to most electricity generation) lose their magnetic force when they are heated, recent research has identified that tiny particles called paramagnons act as semiconductors, capable of turning heat into electricity.

Getting from that basic research to a workable product may happen first with more down-to-earth sources of heat, such as the waste heat from manufacturing processes or vehicles. Applying it to lightning is a less urgent task.

Converting Sound

Anyone who owns a phone knows it’s possible to convert electricity into sound waves. The reverse is possible as well, and experiments are underway across the world in harvesting sound for electricity.

The extreme heat produced by lightning causes the air around it to explode, producing the sound waves we call thunder. Within a few hundred feet of its source, thunder can produce around 120 decibels. Existing sources of sound energy from traffic and urban noise pollution, however, are all-too-reliable nuisances to merit experiments with harvesting thunder.

Outlook on Harvesting Electricity

With electricity, supply must always meet demand—otherwise, the system breaks down and blackouts occur. One of the challenges of harvesting lightning’s energy, as with other renewables, is its intermittency.

The intermittency of lightning is far less predictable both in time and location than wind or solar energy. Storing lightning’s electricity is the most difficult part, not only because the energy storage industry is still in its infancy, but because the storage devices themselves will need to withstand a massive single bolt of electricity without damaging the device.

Political will (and thus research dollars) is focused on the more-established technologies of renewable energy: water, wind, and solar. For the time being, harvesting lightning will remain the pursuit of individual inventors with dreams of being the next Benjamin Franklin.

Frequently Asked Questions

  • How many homes could a single lightning bolt power?

    If all 10 GW of its energy could be harvested, lightning could power 3.4 million homes for a year.

  • How much lightning would we need to capture to power the entire U.S. electricity grid?


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Why Plug Power Stock Soared Today http://livelaughlovedo.com/why-plug-power-stock-soared-today/ http://livelaughlovedo.com/why-plug-power-stock-soared-today/#respond Thu, 03 Jul 2025 23:17:00 +0000 http://livelaughlovedo.com/2025/07/04/why-plug-power-stock-soared-today/ [ad_1]

Plug Power (PLUG 5.36%) stock closed out Thursday’s trading with big gains. The company’s share price rose 5% in the session amid a 0.8% gain for the S&P 500 and a 1% gain for the Nasdaq Composite. The stock had been up as much as 10.7% earlier in the day.

A better-than-expected jobs report and increasing optimism surrounding the broader macroeconomic backdrop for stocks helped support gains for the broader market, and Plug Power also had some good news for investors. The company submitted a business update filing with the Securities and Exchange Commission (SEC) and laid out some encouraging targets.

A screen displaying stock charts and a person touching one of them.

Image source: Getty Images.

Plug Power stock jumps as company targets EBITDA profitability

In an 8-K filing submitted to the SEC today, Plug Power said that it expects gross margins to be stable on an annual basis this year. The company also expects that it will start posting positive earnings before interest, taxes, depreciation, and amortization (EBITDA) at some point in 2026.

In addition to the business update, the company also published a series of filings showing that members of its management team and board of directors had purchased stock. The hydrogen fuel cell specialist’s share price is now up roughly 79% over the last month, and the company has posted big gains recently following an unexpected extension of hydrogen tax credits. .

What’s next for Plug Power?

Plug Power stock has been highly volatile this year and is still down roughly 31% year to date on the heels of its recent rally. It’s also down roughly 84% over the last five years, but some investors are seeing signs that some of the company’s turnaround bets may be falling into place.

While it’s no surefire sign that the stock is poised to bound above current levels, recent share acquisitions by members of the renewable energy specialist’s leadership team are encouraging. The company still has a lot of proving to do, but its outlook is looking better following the extension for hydrogen tax credits.

Keith Noonan has no position in any of the stocks mentioned. The Motley Fool has no position in any of the stocks mentioned. The Motley Fool has a disclosure policy.

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What Is Wind Energy? Definition and How It Works http://livelaughlovedo.com/what-is-wind-energy-definition-and-how-it-works/ http://livelaughlovedo.com/what-is-wind-energy-definition-and-how-it-works/#respond Mon, 23 Jun 2025 01:41:40 +0000 http://livelaughlovedo.com/2025/06/23/what-is-wind-energy-definition-and-how-it-works/ [ad_1]

Wind energy is electricity from the naturally flowing air in the Earth’s atmosphere. As a renewable resource that won’t get depleted through use, its impact on the environment and climate crisis is significantly smaller than burning fossil fuels.

We can create wind energy by erecting something as simple as a set of 8-foot sails positioned to capture prevailing winds that turn a stone and grind grain (a gristmill). Or, a wind energy structure can be as complex as a 150-foot vane turning a generator that produces electricity to be stored in a battery or deployed over a power distribution system. There are even bladeless wind turbines.

As of 2021, more than 67,000 wind turbines operate in the United States, in 44 states, Guam, and Puerto Rico. Wind energy mechanisms generated about 8.4% of the electricity in the U.S. in 2020. Worldwide, wind provides about 6% of the world’s electricity needs. Wind energy is growing year-over-year by about 10% and is a key part of most climate change reduction and sustainable growth plans in several countries, including China, India, Germany, and the United States.

Wind Energy Definition

Cars drive along interstate 580, near rows of wind turbines at the Altamont Pass wind farm in Livermore, California.
Justin Sullivan / Getty Images

Humans use wind energy in many ways, from the simple (it’s still used to pump water for livestock in more remote locations) to the increasingly complex—think of the thousands of turbines that dominate the hills cutting through Highway 580 in California (pictured above).

The basic components of any wind energy system are fairly similar. There are blades of some size and shape connected to a drive shaft, and a pump or generator that uses or collects the wind energy. If the wind energy is used directly as a mechanical force, like milling grain or pumping water, it’s called a windmill; if it converts wind energy to electricity, it’s known as a wind turbine. A turbine system requires additional components, such as a battery for electricity storage, or is connected to a power distribution system like power lines.

Nobody knows when a human first harnessed the wind, but wind energy moved boats on Egypt’s Nile River around 5,000 B.C. By 200 B.C., people in China used wind to power simple water pumps and inhabitants of the Middle East used windmills with hand-woven blades to grind grain. Over time, wind pumps and mills helped produce many kinds of food there, and the concept spread to Europe, where the Dutch built large wind pumps to drain wetlands—from there the idea traveled to the Americas.

Wind Energy Basics

Wind occurs naturally when the sun heats the atmosphere, through variations in the Earth’s surface, and from the planet’s rotation. Wind can then increase or decrease due to the influence of bodies of water, forests, meadows and other vegetation, and elevation changes. Wind patterns and speeds vary significantly across terrain and seasonally, but some of those patterns are predictable enough to plan around.

Site Selection

The tops of rounded hills, open plains (or open water for offshore wind), and mountain passes (where wind is naturally funneled, producing regular high wind speeds) are the best locations to place a wind turbine. Generally, the higher the elevation the better, since higher elevations usually have more wind.

Wind energy forecasting is an important tool for siting a wind turbine. Several wind speed maps and data from the National Oceanic and Atmospheric Administration (NOAA) or the National Renewable Energy Laboratory (NREL) in the U.S. provide these details.

One should conduct a site-specific survey to assess local wind conditions and determine the best direction to place wind turbines for maximum efficiency. Anyone intending to build a wind turbine should track wind speed, turbulence, direction, air temperatures, and humidity in the desired location, for at least a year. After evaluating that information, it’s easier to construct turbines that will deliver predictable results.

Wind isn’t the only factor for siting turbines. Developers for a wind farm must consider how close the farm is to transmission lines (and cities that can utilize the power); possible interference to local airports and plane traffic; underlying rock and faults; flight patterns of birds and bats; and local community impact (noise and other possible effects).

Most larger wind projects are designed to last at least 20 years, if not more, so these factors must be considered over the long term.

Types of Wind Energy

Utility Scale Wind Energy

inakiantonana / Getty Images

These are large-scale wind projects designed to be used as a source of energy for a utility company. They are similar in scope to a coal-fired or natural gas power plant, which they sometimes replace or supplement. Turbines exceed 100 kilowatts of power in size and are usually installed in groups to provide significant power—currently, these types of systems provide about 8.4% of all energy in the United States.

Offshore Wind Energy

monap / Getty Images

These are generally utility-scale wind energy projects that are planned in the waters off coastal areas. They can generate tremendous power near larger cities (which tend to cluster closer to shore in much of the United States). Wind blows more consistently and strongly in offshore areas than on land, according to the U.S. Department of Energy. Based on the organization’s data and calculations, the potential for offshore wind energy in the U.S. is more than 2,000 gigawatts of power, which is two times the generating capacity of all U.S. electric power plants. Worldwide, wind energy could provide more than 18 times what the world currently uses, according to the International Energy Agency.

Small Scale or Distributed Wind Energy

dja65 / Getty Images

This type of wind energy is the opposite of the examples above. These are wind turbines that are smaller in physical size and are used to meet the energy demands of a specific site or local area. Sometimes, these turbines are connected to the larger energy distribution grid, and sometimes they are off-grid. You’ll see these smaller installations (5-kilowatt size) in residential settings, where they might provide some or most of a home’s needs, depending on weather, and medium-sized versions (20 kilowatts or so) at industrial or community sites, where they might be part of a renewable energy system that also includes solar power, geothermal, or other energy sources.

How Does Wind Energy Work?

The function of a wind turbine is to use blades of some shape (which can vary) to catch the wind’s kinetic energy. As the wind flows over the blades, it lifts them, just like it lifts a sail to push a boat. That push from the wind makes the blades turn, moving the drive shaft that they’re connected to. That shaft then turns a pump of some kind—whether directly moving a piece of stone over grain (windmill) or pushing that energy into a generator that creates electricity that can be used right away or stored in a battery.

The process for an electricity-generating system (wind turbine) includes the following steps:

Wind Pushes Blades

Ideally, a windmill or wind turbine is located in a place with regular and consistent winds. That air movement pushes specially designed blades that allow the wind to push them as easily as possible. Blades can be designed so they are pushed upwind or downwind of their location.

Kinetic Energy Is Transformed

Kinetic energy is the free energy that comes from the wind. For us to be able to use or store that energy, it needs to be changed into a usable form of power. Kinetic energy is transformed into mechanical energy when the wind meets the windmill blades and pushes them. The movement of the blades then turns a drive shaft.

Electricity Is Generated

In a wind turbine, a spinning drive shaft is connected to a gearbox that increases the speed of the rotation by a factor of 100—which in turn spins a generator. Therefore, the gears end up spinning much faster than the blades being pushed by the wind. Once these gears reach a fast enough speed, they can power a generator that produces electricity.

The gearbox is the most expensive and heavy part of the turbine, and engineers are working on direct drive generators that can operate at lower speeds (so they don’t need a gearbox).

Transformer Converts Electricity

The electricity produced by the generator is 60-cycle AC (alternating current) electricity. A transformer may be needed to convert that to another type of electricity, depending on local needs.

Electricity Is Used or Stored

Electricity produced by a wind turbine might be used on site (more likely to be true in small or medium-sized wind projects), it could be delivered to transmission lines for use right away, or it could be stored in a battery.

More efficient battery storage is key for advancements in wind energy in the future. Increased storage capacity means that on days when the wind blows less, stored electricity from windier days could supplement it. Wind variability would then become less of an obstacle to reliable electricity from wind.

What Is a Wind Farm?

A wind farm is a collection of wind turbines that form a type of power plant, producing electricity from wind. There’s no official number requirement for an installation to be considered a wind farm, so it could include a few or hundreds of wind turbines working in the same area, whether on land or offshore.

Wind Energy Pros and Cons

Pros:

  • When properly placed, wind energy can produce low-cost and nonpolluting electricity about 90% of the time.
  • There is minimal waste generated by a wind farm—nothing needs to be carted away and dumped, no water supply is needed to cool machinery, and there’s no effluent to scrub or clean.
  • Once installed, wind turbines have a low operating cost, as wind is free.
  • It’s space flexible: You can use a small turbine to power a home or farm building, a large turbine for industrial energy needs, or a field of giant turbines to create a power plant-level source of energy for a city.

Cons:

  • Wind reliability can vary. In addition, weak or strong winds will shut down a turbine and electricity won’t be produced at all.
  • Turbines can be noisy depending on where they are placed, and some people don’t like the way they look. Home wind turbines might offend neighbors.
  • Wind turbines have been found to harm wildlife, especially birds and bats.
  • They have a high initial cost, though they pay for themselves relatively quickly.

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