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Unlike public stock exchanges, which offer daily trading, strict regulatory disclosure, and high liquidity, private markets are less transparent, have lower liquidity, and require long-term commitments. They also have less oversight and are generally considered riskier. With that in mind, many savvy investors wonder whether it’s time for them to invest in the private market. It can be worthwhile for these reasons: 

Higher Returns Potential

Once you’ve established the distinctions between accredited investor and qualified purchaser and established your financial capacity to engage with the risks of private investments, you may enjoy higher returns. 

Private companies tend to be earlier in their growth stages than public companies. If you invest in an early-stage company before it becomes widely known and it grows significantly, your returns can be much higher. 

WhatsApp is a great success story as a Venture Capital-backed company. The company’s only venture investor, Sequoia Capital, turned $60 million into $3 billion when Facebook bought WhatsApp for approximately $19 billion. 

Many investors had been skeptical about investing in WhatsApp because it only charged $1 per year and had no ads. However, Sequoia Capital believed in massive user growth, a simple product, and strong founders. They invested $8 million in 2011, $52 million more in 2013, and made their return upon the company’s sale when they owned around 15-20% of the company at acquisition. 

Less Daily Market Volatility

As a public stock investor, you generally keep tabs on what your investments are doing every day. They are prone to change moment to moment, driven by news and market emotions. Most changes occur within milliseconds between 9.30am and 4pm EST in the US, but volatility continues in pre-market and after-hours trading. 

Private investments are more about playing the long game. Once you invest, you must sit and wait for the magic to happen. Private investments aren’t traded daily and don’t fluctuate in price every minute. As a result, your investment can feel more stable, even though risk still exists. 

One of the least volatile private market investments is core private infrastructure, such as toll roads, airports, and data communication networks. They provide stable cash flows through contracts and regular demand. As they aren’t actively traded on public exchanges, there are fewer valuation swings. 

Diversification 

There’s no denying that the private market is risky. That’s why you must be a qualified purchaser or accredited investor to make certain investments through various platforms. Standards include a minimum annual income and net worth, professional certifications, and knowledgeable employees or investment managers.

However, in the same way that you can spread your risk across multiple investment types in the public market, you can do the same in the private market. You can invest in startups, private real estate, private credit, and infrastructure projects. The risk varies across all investment types, which helps investors diversify their portfolios and avoid concentrating their exposure in a single asset or strategy. 

Exclusive Opportunities

Startups can offer thousands of percents in returns, but the risks are very high at the seed stage.You can miss out on a lot of early growth if you wait until a company goes public before you invest (see how to build a 100 year old company). In today’s market, many high-growth companies are staying private for longer. Rather than raising capital in public markets, they raise capital through private funding rounds from private equity and venture capital investors. 

As a result, much of the early growth occurs while the company is still private, including rapid scaling, market dominance, and revenue expansion. If you invest in such companies early on, you can expand your opportunity set, increase potential return sources, and diversify your portfolio. 

You may be surprised by how many companies have chosen to remain private for longer. Stripe is one of the most valuable fintech firms and was private for over a decade. They wanted to avoid short-term scrutiny of public markets and focus on their product development and long-term infrastructure. SpaceX also raised billions of dollars in private funding and achieved major technological milestones, all while not listing on a public exchange.  

There are undoubtedly many things to be mindful of before investing your hard-earned money, but the private market is bound to pique your curiosity. As an eligible qualified purchaser or accredited investor, you may access exclusive opportunities, higher return potential, and numerous diversification options. Green Prophet does not endorse investing in any company without using an SEC-compliant, accredited investor. 

The post Should You Invest in the Private Market? appeared first on Green Prophet.

Elon Musk has made it clear. He’s going to inhabit Mars. But the first natural step, he says, will be the moon. We’ve reported on the moon base station. NASA knows that plants can grow on the moon. And countries like China and Russia have declared they will build cities there too using nuclear power. Stepping up to democratize the moon is an EU-funded company, Deep Space Energy, which has just raised more than $1 million USD as a seed fund to help it create energy generators on the moon. It’s a bid to strengthen the European sovereign space and defense industry and power Moon surface exploration.

The researchers are from Latvia: “Our technology, which has already been validated in the laboratory, has several applications across the defence and space sectors.

“First, we’re developing an auxiliary energy source to enhance the resilience of strategic satellites. It provides the redundancy of satellite power systems by supplying backup power that does not depend on solar energy, making it crucial for high-value military reconnaissance assets,” says Mihails Ščepanskis, founder and CEO of the company.

Based in Riga, the company is developing a radioisotopic generator toward commercialisation. The electricity comes from nuclear decay — a nuclear process. And the equipment does not include a nuclear reactor which could explode.

The funding was made up of its €350k pre-Seed round led by Outlast Fund and Linas Sargautis, an angel investor and a former co-founder of NanoAvionics. The company also secured additional €580k in public contracts and grants by the European Space Agency (ESA), NATO DIANA, and the Latvian government. It’s not a huge sum of money for such an ambitious project but it’s a start.

European and American military and space technologies are what leads to new inventions in medicine, ecology and renewable energy.

Military spy satellites evolved into Earth-monitoring satellites that now track deforestation (Amazon, Congo), (see MIT using AI and imaging for trees in cities) they can monitor methane leaks and pollution; and satellites predict droughts and crop failures.

Military thermal imaging using infrared vision is now used to detect inflammation and vascular disease, it can screen for breast cancer and detect fevers at airports.

In the 2025–2026 period, EU-Startups has reported substantial capital flows into the European SpaceTech sector, primarily at Seed and Series A stage.

Germany’s Reflex Aerospace secured €50 million to scale sovereign satellite platforms, while France’s Infinite Orbits raised €40 million to expand in-orbit servicing capabilities. Also in France, Look Up attracted €50 million to grow its radar-based space surveillance network, and UNIVITY secured €31 million to accelerate development of a space-based 5G constellation.

In Germany, Marble Imaging raised €5.3 million to scale its very high resolution Earth observation satellites ahead of launch, while Spain’s Kreios Space secured €8 million to advance propulsion systems for very low Earth orbit. Italy’s Astradyne raised €2 million to commercialise ultralight solar panels, and Spain’s Orbital Paradigm closed a €1.5 million pre-Seed round to develop reusable space capsules.

Collectively, these rounds represent approximately €187 million in disclosed funding moving into European SpaceTech across adjacent segments including satellite infrastructure, propulsion, communications, servicing and observation.

Deep Space Energy says it will put a focus on energy resilience for satellites and lunar missions rather than platform deployment.

“As Europe is trying to become more independent, it is imperative to produce satellites with advanced capabilities on our own. Our technology provides an auxiliary energy source for satellites, which makes them more resilient to non-kinetic attacks and malfunctions,” Mihails adds.

Founded in 2022, Deep Space Energy is developing a new radioisotope power generator for space that uses the heat produced by the nuclear self-decay of radioisotopes – materials extractable from waste of commercial nuclear reactors.

The product aims for applications in deep space science missions, lunar surface missions and high-value defense satellites. Their solution converts that heat into electric power, requiring 5 times less radioisotope fuel than a thermo-electric generator (RTG), currently used in space.

The company highlighted that its radioisotope-based energy generator is not designed for any kind of weapons. It will target high-value, dual-use satellites to increase their resilience and operational reliability. The primary focus is on satellites operating in Medium Earth Orbit (MEO), Geostationary Orbit (GEO) and Highly Elliptical Orbit (HEO), which are all critical for modern military reconnaissance and early-warning systems.

These satellites support a range of defence functions, from synthetic aperture radar (SAR)
satellites for detecting troop concentrations through clouds and foliage, to signal intelligence for intercepting communications and radio transmissions, as well as missile-launch detection, which is essential for anti-missile defense systems.

Egita Poļanska, partner at the lead investor Outlast Fund, shares: “Space energy tech has been stuck with certain limitations for decades, but we’re finally seeing the pieces come together for a real breakthrough – new materials, smarter power systems, and actual commercial demand for lunar operations.

“Deep Space Energy is building the infrastructure that will literally power the next chapter of space exploration and industry. As Europe ramps up its space ambitions, we need our own companies to lead in these foundational technologies. We’re thrilled to back this team and honestly pretty excited to have an actual moonshot in our portfolio, in the most literal sense possible.”

In the long term, the company aims to focus on the Moon economy. The radioisotope power generator looks to address critical energy challenges in the next phase of lunar exploration, including NASA and ESA’s Artemis, Argonaut and lunar rover programs, as well as the Moon Village framework led by the Moon Village Association. In particular, the technology is designed to support lunar night survival and operations in permanently shadowed regions, enabling extended scouting and prospecting missions.

On the Moon, where the temperatures at night drop below 150 degrees Celsius, and nights last for roughly 354 hours, moonrovers can’t rely on solar power.

The company’s technology requires approximately 2kg of Americium-241 fuel to generate 50W of power for a lunar rover, compared with around 10kg of radioisotope material needed by legacy RTG systems for comparable output. Given current projections that Americium-241 production capacity will reach around 10kg per year by the mid-2030s, this efficiency could enable lunar exploration missions to begin more than five years earlier and at up to five times the mission volume.

According to Ščepanskis, the company’s technology can significantly enhance the economics of moon rover missions by enabling them to last multiple day-night cycles up to a few years. The sole expenses of bringing payload to the Moon cost up to a million euros per kilogram; thus, by enhancing the lifetime of the rovers, the company helps to save hundreds of millions.

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In the shimmering heat of the world’s great deserts, from Saudi Arabia’s Rub’ al Khali (the Empty Quarter) to the sands outside Abu Dhabi, lies a paradox. These landscapes bask in uninterrupted sunshine yet remain under-leveraged in the global renewable economy. The stumbling blocks to starting solar projects are rarely physical: the sun blazes. The hurdles are administrative, financial, and usually bureaucratic. As we’ve learned from Ipanema some 80-90% of renewable projects fail due to unforeseen, high grid connection costs, which Astro’s AI identifies upfront.

The company secures grid interconnection agreements, then sells these de-risked, shovel-ready projects to larger energy companies who can immediately start construction.

How? Astro, based in Silicon Valley uses artificial intelligence to map, acquire, and ready land for utility-scale clean energy build-out, then sell these “plug-and-play” sites to developers hungry for opportunity but infuriated by paperwork.

Astro’s pitch sounds almost too simple to be disruptive because if the biggest barrier to solar and wind isn’t physics but red tape, what if you solved the red tape first? The company’s machine-learning models ingest satellite imagery, grid maps, land-use data, and localized weather forecasts to pinpoint parcels that are ideal for renewables — not just sunny or windy, but grid-connectable, low-conflict, and low-cost.

Once a site is selected, Astro negotiates land access, coordinates environmental assessments, and aligns utility interconnection agreements, all the elements that typically take years.

For oil-rich, environmentally vigilant Gulf states, this isn’t just another startup story. It is a blueprint for accelerating an energy transition that is now existential, not optional. Regionally, governments have set ambitious targets such Saudi Arabia’s Vision 2030 (which is most likely going to fail from poor planning and the dropping cost of oil) and the UAE’s Net Zero by 2050 strategy among them — but the execution often collides with an analog world of forms, approvals, and human inertia. Astro’s model turns that world digital, algorithmic, and fast.

Now imagine applying Astro-style intelligence to water resources, wind energy, and even remediation of damaged lands. They could help us map out where to put greenhouses and towns of the future. They can plan cities not based on a feeling but on opportunities.

In arid environments, the scarcity of freshwater supplies is as pressing as the need for clean power. By layering hydrological data onto the same AI platform that identifies prime solar sites, planners could locate aquifer recharge zones, optimize placement for desalination projects powered by renewables, and reduce the energy footprint of water distribution.

Wind isn’t far behind. Coastal zones of the Arabian Gulf and the Red Sea present compelling offshore and onshore wind potential. The same technology that pinpoints grid access for solar can model turbine wakes and logistics corridors, dramatically shortening the time from concept to construction.

And then there’s the elephant in the room: the environmental damage left in the wake of fossil extraction. You don’t have to look far for a cautionary tale — the soil and water crises around Basra’s oil fields which we wrote about last month, have made headlines and sickened communities. While Astro doesn’t sell cleanup services, the implication of its approach is clear: when you can map the viability of a clean project with precision, you can also map the liabilities. That opens the door for investors and sovereign wealth funds to bundle renewable investment with environmental remediation in blended finance vehicles.

Astro is founded by Alex Fuster. He is a Stanford-trained physicist and computer scientist and former energy trader at Citadel, he built Astro after seeing how predictable grid congestion data is overlooked by traditional developers. Astro is part of Y Combinator and is starting business development in Texas. Astro Energy closed a pre-seed funding round of about $500 K in April 2025, with participation from Y Combinator.

The post Astro uses AI to help procure land for renewable energy appeared first on Green Prophet.

When people think of sustainable energy and the transition to a renewable model, they might think of it as a clean break: fossil fuels are out, renewables are in. Unfortunately, the process is anything but clean or linear. Decarbonization is moving forward, but hydrocarbons are still an integral part of our energy systems, economies, and infrastructure. It can’t just be turned off.

This creates what amounts to a dual transition. Leaders are in a position where they must reduce emissions while still keeping the lights on and the economies stable. It’s not merely a question of technology, it’s also a huge leadership challenge that calls for strategy, policy, and risk management.

A Dual-Energy Transition: Double the Challenge

Today’s energy systems are under pressure from several directions at once. Climate targets are calling for a rapid reduction in emissions, while energy security concerns are pushing governments and companies to ensure there’s a reliable, affordable supply of energy. As one might expect, these goals don’t always line up neatly.

Geopolitical tensions, trade dynamics, and infrastructure limitations further complicate things. Things like pipeline capacity, grid limitations, and regional resource distribution all influence how quickly new energy sources can be brought to bear. Added to which, demand is continuing to rise. Expanding data centers and AI-driven technologies are currently sucking up enormous amounts of water and electricity. Not only do today’s sustainability professionals have to continue to meet this skyrocketing demand, but they also have to plan for sustainable growth and cut carbon intensity at the same time. It’s a lot.

Hydrocarbon vs. Renewables: Competing or Coexisting?

A dual energy landscape isn’t some dreamed-of future. In reality, hydrocarbons and renewables are already coexisting. Oil and gas are still the backbone of the world energy supply, while wind, solar, and other low-carbon technologies are continuing to grow.

Many companies and organizations now manage mixed energy portfolios that include both renewable and traditional energy projects. Reliable fossil fuels most often provide grid stability, while renewable capacity expands and storage technologies mature. There are also technologies like carbon capture and storage that seek to reduce emissions while long-term transitions take place. Many companies are trying to bridge the current energy reality and the renewable future, which is an ongoing and sophisticated balancing act.

That brings us to the question of leadership and the role it must play in this transitional period.

The Leadership Challenge

Today’s senior leaders in the energy sector are under a lot of pressure. On one hand, they have to pursue decarbonization goals in order to meet regulations and investor demands, while on the other they are held accountable for stability, profitability and access in regards to energy.

Every decision made at this level can have long-term consequences. Investing too slowly in low-carbon technologies could result in stranded assets and damage to one’s reputation for not embracing sustainability; moving too quickly without securing energy supply runs the risk of outages, price spikes, and political backlash.

This sort of complex and delicate situation calls for leaders who can operate in the strategic, regulatory, and commercial spheres with equal skill. Technical knowledge is a necessity, but it’s also not enough. Today’s energy professionals need to understand how markets, policy, and finance all intersect with the realities of sustainable engineering.

Developing Leaders for the Dual-Energy Era

In other words, today’s leaders need a broad and integrated skill set. What kind of skills in particular? For one, a working knowledge of policy and regulatory frameworks is crucial. Financial management skills play a major part, since projects are often long, involved, and can be tremendously costly. Strategic planning and problem-solving are also a vital part of the core skillset, as professionals have to deal with uncertainty, balance stakeholder interests with feasibility, and be able to adapt to a constantly and rapidly changing environment.

This is a large-scale challenge, and one that calls for structured leadership development. Experience in one area of the energy industry isn’t enough to guarantee readiness across all the others. That’s where a structured program like an MBA in energy can come in. Today’s advanced curricula explore energy economics, finance, policy, and strategic management alongside the technical subjects. And when pursuing an energy MBA online, professionals can skill up and retrain without having to step out of the labor market — an important perk at a time when skilled professionals are already in short supply.

The energy transition is not a linear progression. It’s a period of overlap, tension, and recalibration as mistakes are made and technologies emerge or are abandoned. Those technologies will always be evolving, but the need for skilled leadership will remain a constant. Those who can balance decarbonization efforts with energy security and profitability will help shape the future of our energy landscape.

The post Leading Through a Dual-Energy Transition: Balancing Decarbonisation with Energy Security appeared first on Green Prophet.

The American Southwest is where the EV transition faces its most unforgiving conditions. Extreme heat degrades EV batteries, causing range loss of 15% to over 30% when temperatures exceed 95°F to 100°F. Long travel corridors strain range limits of commuters and long-haul trucks. Grid access remains patchy across vast desert and rural zones. In much of Arizona, Nevada, New Mexico, West Texas, and inland California, electric mobility is not constrained by consumer interest, but by infrastructure reality. This is despite these regions being a hub for EV battery production to be close to the source of building lithium batteries.

This is the environment where M2PV Capital is building its business.

The company frames electric mobility infrastructure as requiring more than chargers. It argues that technical precision, grid independence, and operational excellence are essential in regions where traditional infrastructure does not exist. M2PV Capital develops, owns, and operates off-grid EV charging assets through an in-house technical model designed to bypass grid dependence entirely. Micro-grids are the key.

For Southwest communities and transport corridors, that approach addresses a core bottleneck: grid expansion timelines that stretch years beyond mobility demand. M2PV Capital’s strategy is structured around designing energy independence directly into each project.

The company positions its work around locations where conventional developers often hesitate to operate: desert regions, remote corridors, and underserved communities. Where the grid is absent or unreliable, its systems are designed to function independently and perform reliably for decades. This model reflects the Southwest’s physical realities. Solar resources are abundant. Population density is low. Travel distances are long and infrastructure must operate with minimal external support.

M2PV Capital is currently developing two primary business capabilities: Charging Plazas and power plant development. These projects are intended to demonstrate technical execution while establishing repeatable models for scalable deployment. In practical terms, this means EV charging stations paired with dedicated power assets, allowing each site to operate as an integrated energy system rather than a grid-dependent endpoint.

For Southwest planners and investors, the approach offers a potential blueprint for EV expansion without waiting for large-scale transmission upgrades. That balance is increasingly important as public agencies seek infrastructure models that align climate objectives with regional resilience and fiscal accountability.

M2PV Capital describes its role as building the infrastructure backbone for electric mobility in overlooked markets, combining technical depth, operational ownership, and long-term asset discipline to deliver predictable performance. Green Prophet speaks with M2PV Capital to learn more about opportunities as it tests the ground in the United States, bringing proof-of-concept for regions in Canada where extreme cold is the other side of the same coin, or the Middle East where thousands of miles of relentless desert could be charging station and energy opportunities as the world weans off oil and natural gas.

GREENPROPHET: What is M2PV Capital’s main focus?
M2PV Capital: We develop, own, and operate off-grid EV charging infrastructure in underserved and remote regions where traditional grid access is limited or nonexistent.

Why off-grid?
It allows us to deploy infrastructure where it’s needed most, without waiting for grid expansion. We engineer energy independence into every project.

What business capabilities are you building?
Two core businesses: Charging Plazas for public EV infrastructure and power plant development to generate the energy that powers them independently. Both demonstrate our technical execution and create scalable models.

Why focus on desert and underserved regions?
These areas lack infrastructure but have critical mobility needs. They also require sophisticated engineering—our core strength.

What makes your technical approach different?
Everything is in-house: feasibility analysis, system design, construction oversight, and operations. We control quality and performance at every stage.

How do you ensure long-term asset performance?
Through rigorous upfront planning, robust system design, and continuous operational management. Our assets are built to perform reliably for 20+ years.

What do investors and policymakers gain from this approach?
Confidence. Our projects are technically sound, operationally proven, and financially disciplined. They deliver infrastructure that works and returns that are predictable.

What is the core opportunity you see in the market right now?
We can build power plants rapidly, because we don’t have to wait for grid interconnection (we are off-grid).

This fund aims to reduce downside risk and capitalize on the accelerating EV market by acquiring prime land on which we build off-grid, clean-energy-powered EV charging stations, particularly in the rapidly appreciating desert Southwest. Our differentiation lies in our ability to bypass grid interconnection bottlenecks, enabling faster development and mitigating risks from grid instability, while having a clear path to funding subsequent EV station construction. Because we invest in Opportunity Zones, the gains can be tax free. Creating power generation facilities in areas where the grid is weak or has not reached yet enables industry to co-locate, further increasing the value of the land we invest in.

What types of assets and geographic markets will your fund focus on and why?
Our fund will focus on companies operating in the Southwest United States, specifically land in Opportunity Zones with access to water, highways, and data lines. The Southwest allows us to generate energy at a low cost due to low land cost and high solar irradiation.

How will your fund create value across its portfolio?
By investing in companies that start with low-cost greenfield land and develop energy and transportation infrastructure, we invest in land that increases in value rapidly. While competitors focus on areas with grid connection, our investments can operate slightly outside the range of the grid and generate their own electricity, avoiding competition with large corporations in the current land grab.

Our CEO has 30 years of experience in the solar industry, 10 years in power plant development, five years in batteries, and two years in EV charging stations. He has designed, procured, built, and developed gigawatts of power plants.

Our COO has a background in transportation and logistics as well as EV chargers. We know how to design and build power plants fast.

Our portfolio companies acquire low-cost land and raise its value by creating local infrastructure through EV charging stations for trucks and passenger vehicles. Our strength is the ability to build power infrastructure anywhere.

Why the Southwest comes first

M2PV Capital identifies the Southwest United States as its primary growth region because extreme climate conditions, long travel corridors, and limited grid access create a persistent EV infrastructure gap. While desert regions are a natural fit, the company’s focus extends to any underserved or infrastructure-constrained areas within the region.

Its target audience includes infrastructure- and energy-focused investors, government and regional development decision makers, and participants across the EV and clean energy ecosystem.

Although initial deployments are concentrated in the Southwest, the company’s technical and operational model is designed to be repeatable in similar climates globally. Regions such as the Middle East share many of the same challenges, including extreme heat, remote locations, and the need for energy independence. International markets are viewed as longer-term extensions of the platform rather than immediate priorities.

M2PV Capital frames its five-year outlook around disciplined execution, foundation building, and long-term profitable operation of EV assets.

__

To reach the company, drop them a line: mmesmer@m2pv.com

::M2PV Capital

The post M2PV Capital Targets the American Southwest as Its Launchpad for Off-Grid EV Growth appeared first on Green Prophet.

At a moment when the United States is wrestling with energy policy uncertainty and climate commitments (it left the Paris Accords under the Trump Administration), the conversation around renewable energy has never been more urgent. From grid modernization efforts to biofuel mandates in the pipeline, to renewable energy powering AI, US energy decision-makers are increasingly recognizing that sustainability and resilience must go hand in hand.

Renewable energy is often associated with solar panels and wind turbines. Yet not all renewables are intermittent or dependent on weather conditions. Biogas — methane produced by the anaerobic digestion of organic waste — offers a continuous, reliable source of clean energy that complements intermittent renewable sources like wind and solar. Through engineered systems that capture methane from agricultural residues, wastewater, and landfill gas, biogas technologies can generate electricity, produce renewable natural gas (RNG), and even power transportation fleets and airplanes using SAF.

Embedded in this transformation is a lesser-known but powerful player: biogas engineering — a technology poised to influence long-term environmental planning for decades to come. The engineering behind biogas systems is critical for its uptake. Companies specializing in biogas engineering design, build, and operate facilities that optimize the conversion of waste into usable energy. These systems don’t just generate fuel — they reduce methane emissions, produce valuable by-products such as renewable fertilizer, and help municipalities and farmers meet sustainability goals.

In the context of American energy policy (setting the stage for the world as oil prices are in USD), the relevance of renewable energy planning is increasingly evident. Federal agencies are preparing final biofuel blending mandates under the Renewable Fuel Standard, with decisions expected early in 2026 after delays that have left investors and producers in limbo.

At the same time, cities like San Antonio are demonstrating biogas’s real-world potential: landfill methane is being transformed into renewable natural gas that fuels public transit buses, reducing carbon emissions by up to 85% compared to diesel.Such projects exemplify how renewable energy can weave into everyday infrastructure, supporting decarbonization while enhancing local economies. See how Texas policy supports investment in biogas.

What are the advantages of biogas?

1. Continuous, Dispatchable Clean Energy: Unlike solar or wind, biogas can be scheduled and provided on demand. Its capacity to produce power around the clock strengthens grid reliability as renewable penetration grows.
US EPA

2. Methane Mitigation: Methane is a potent greenhouse gas with more than 80 times the warming impact of CO₂ over 20 years. Capturing methane from waste streams and converting it into energy both lowers emissions and generates a valuable resource.

3. Circular Economy Benefits: Biogas systems turn organic waste into energy and soil amendments, advancing waste reduction and creating added value for rural communities.

4. Strategic Energy Independence: By producing domestic renewable fuels like RNG and compressed natural gas for vehicles, biogas supports U.S. energy security while reducing reliance on imported fuels.

As policymakers and planners consider long-term climate strategies — from updating infrastructure to scaling renewable mandates — integrating biogas engineering into broader frameworks will be crucial. Not only does biogas bridge gaps in the renewable energy landscape, it also aligns environmental, economic, and social objectives in a way that few other solutions can. In a time of accelerating climate challenges and policy debates, renewable energy isn’t just about reducing emissions — it’s about building resilient systems that serve communities sustainably for generations. And it will be interesting to see how AI best practices interface in this market.

The post What Renewable Energy Means for Long-Term Environmental Planning appeared first on Green Prophet.

Wind energy is a real asset to the energy transition. Turbines rise quickly, emissions fall sharply, and electricity flows without smoke, spills, or tailings. But behind the clean lines of a wind farm lies a question that is rarely asked out loud: what happens when the wind itself begins to change?

Across Europe, North America, and parts of Asia, wind power has become one of the most scalable tools available to decarbonize energy systems. It can be built faster than nuclear, expanded more flexibly than hydro, and deployed almost anywhere grids exist. Whether offshore or onshore, industrial or rural, wind power adapts.

To make that expansion possible and get the best performance possible, the sector increasingly relies on advanced modeling tools,  such as Meteodyn’s software and services, which translate wind and atmospheric behaviors into usable data for developers and planners. But a new critical question arises: will the wind still be there?

Because climate change does not stop at temperature charts.

Wind is changing, quietly

Climate change alters atmospheric circulation, pressure gradients, and seasonal weather patterns. These changes rarely make headlines, yet they directly influence how, when, and where wind blows. In some regions, average wind speeds may increase; in others, they may weaken or become more erratic.

For a wind farm designed on 20 years of historical data, this matters. A project that looks profitable today may deliver less energy in the future, on the opposite, way more. Uncertainty replaces confidence.

Developers and utilities are beginning to face this reality. Can yesterday’s wind statistics still be trusted for assets expected to operate until 2050? Or are we planning tomorrow’s infrastructure based on a climate that changes faster than we ever thought?

Ignoring the shift would be convenient and easy, but it would also be reckless.

Why long-term planning needs future wind data

Wind projects are not short-term bets. They are built to last decades, financed over long horizons, and integrated into national energy strategies that assume stability. When climate change enters the equation, that assumption weakens.

Assessing future wind resources under different climate scenarios is no longer a theoretical issue: it is a risk-management exercise. By looking ahead—rather than only backward—energy planners can identify regions where wind potential remains robust, where variability increases, or where adaptation may be required.

This is about avoiding blind spots, because blind spots are costly.

Climate scenarios meet energy reality

The IPCC’s climate scenarios—like SSP2-4.5 or SSP5-8.5—are often cited in reports, yet rarely translated into site-level energy decisions. Doing so requires expertise, validated modeling chains, and transparent assumptions.

When wind projections are aligned with recognized climate scenarios, developers can stress-test projects against plausible futures, investors can better understand exposure, and policymakers can plan with fewer surprises.

Climate change analytics help clarity replace guesswork.

Meteodyn and future wind and AEP projections

Meteodyn has developed a dedicated service to evaluate how wind resources and energy production may evolve under different climate scenarios, performing cutting-edge statistics on IPCC-aligned projections.

The goal is  informed anticipation to make sustainable decisions. By quantifying potential changes in wind regimes over time, stakeholders gain a clearer view of long-term performance, risk, and resilience.

Because planning early is usually cheaper than reacting late.

Making climate-aligned wind data accessible

Since October 2, 2025, Meteodyn makes climate-aligned wind and AEP projections datasets available through a dedicated shop, the Wind Data Portal. These datasets allow users to access standardized wind and energy production projections linked to climate change scenarios and localised to projects’ locations.

This matters. Access to future-oriented data should not be limited to large institutions alone. Shared data enables shared responsibility, and responsibility is the foundation of a credible energy transition.

The climate change will not wait

Wind energy remains one of the strongest tools available to fight climate change, but it is not immune to it. As the climates shift, so must the way wind resources are assessed, planned, and valued.

Adaptation is not optional, it is the price of durability.

The post How wind energy must adapt to a changing climate appeared first on Green Prophet.

For a long time, large technology companies spoke about renewable energy mostly in terms of climate commitments. And the commitments felt like punishments to all of humanity. Carbon offsets, net-zero timelines, carefully worded sustainability pages. I’ve covered plenty of those announcements over the years, from conference halls and Zoom cals to quiet briefings where the stories always felt more narrative than about opportunity.

We first heard the call about electricity and the Internet around 2005 when people who were starting up websites were expected to use servers powered by renewable energy. We tried but when the wind power failed at a company we chose, our site went down. Electricity is now a practical constraint and a business opportunity.

That shift helps explain why Alphabet, Google’s parent company, has agreed to acquire American renewable energy company Intersect Power in a deal valued at roughly $4.75 billion. It’s a move that reflects a deeper change: technology companies are paying closer attention to the physical systems that support their growth.

Intersect Power is a US-based clean energy developer focused on large solar power plants paired with battery storage. The pairing is important. Solar generation alone is inexpensive but intermittent. Lots of energy can be produced by day and fed to the grid but what isn’t used just disappears. Storage allows energy to be used later, during periods of high demand or grid congestion, rather than only when the sun is shining.

Intersect develops, owns, and operates many of its projects, then sells the electricity through long-term power purchase agreements to utilities or large customers. It’s a familiar infrastructure model, one that prioritizes predictable returns and steady output over experimentation. The early beginnings of this model started around 2007, but the technology of solar energy couldn’t always deliver returns. See how Ivanpah in California was built on promises that are no longer a good business model based on today’s projections.

Intersect’s projects are built to power data centers and are concentrated in California, Texas, and parts of the USSouthwest. Anyone who has followed energy reporting in California over the past decade has seen how fragile the system can feel during heatwaves, when demand spikes and grid operators issue warnings. Locating generation and storage close to demand helps reduce stress on those systems.

Today, Intersect operates and is building multiple gigawatts of solar capacity, along with several gigawatt-hours of battery storage. Altogether, it has well over 10 gigawatts of projects operating, under construction, or in development across the United States. That scale places it among the larger independent clean energy developers in the country.

Intersect Power was founded in 2016 by Sheldon Kimber and Luke Dunnington, both coming from energy finance and infrastructure backgrounds. This is typical in solar energy and renewable energy companies as the deals are mostly based on contracts with banks, financing and investors. The company is headquartered in San Francisco, close to both capital markets and the technology firms that increasingly shape electricity demand.

Before the Alphabet deal, Intersect had raised more than $2 billion in equity and project financing from private investors.

According to CEO Kimber, “Intersect will remain Intersect, remaining separate from Alphabet and Google under the Intersect brand, and I’ll continue as CEO.

“When we founded this company in 2016, the goal was to build something durable and to preserve our planet for future generations through innovative energy solutions and modern infrastructure. To ask why not? when the industry reflexively said, that’s not the way it’s done.

“Today, modern energy infrastructure sits at the center of American competitiveness in AI. Power is the bottleneck.

“I’ve always been excited about tackling what comes next. Exploring new technologies. Continuing to accelerate the redesign of an energy infrastructure for the world we actually live in.”

Alphabet’s and Google’s interest in an energy developer isn’t about public messaging. Running large data operations requires steady, uninterrupted electricity and reliable cooling. Delays in grid connections, power shortages, or price volatility can slow expansion plans. I’ve reported before on renewable projects that were technically complete but couldn’t deliver power because transmission simply wasn’t available. Those kinds of bottlenecks are no longer abstract risks.

Owning or controlling access to generation and storage offers a way around some of those constraints. In that sense, Alphabet’s move resembles earlier shifts in the tech sector, when companies moved from renting infrastructure to building and managing it themselves.

Alphabet is not the only firm thinking this way. Microsoft, Amazon, and Meta have all increased their involvement in long-term power contracts and energy development. What has changed is not the technology, but the motivation. Clean energy is now tied closely to reliability, timing, and operational planning, not just emissions targets.

For investors, Intersect Power itself is not publicly traded, and exposure now largely comes through Alphabet. Other options include infrastructure funds, storage-focused energy investments, or companies that supply batteries, power electronics, and grid equipment if you are looking to invest in a meaningful space for 2026.

The post Alphabet buys Intersect Power for $4.5 Billion USD to sustainably power its AI infrastructure appeared first on Green Prophet.

Egypt’s Ministry of Electricity and Renewable Energy, the Egyptian Electricity Transmission Company, and a consortium comprising Infinity Power and Hassan Allam Utilities Energy Platform signed an agreement to jointly develop solar power projects at Benban Solar, one of the world’s largest solar energy parks in Egypt. The new project will be a total installed capacity of 1.2GW of solar energy, coupled with the construction of a 720MWh battery energy storage system.

According to the agreement, the project will be advanced in two phases across different regions of Egypt. The first phase involves building a new 200MW solar power plant with a supporting 120MWh energy storage system in the Benban Solar Park, Aswan area. This solar park already provides power to about 1 million Egyptian homes.

The new plant is scheduled to commence commercial operation in the third quarter of 2026.

The second phase of the project will construct a larger 1GW solar facility in Minya Governorate area of Egypt, equipped with 600MWh of storage capacity, targeting grid connection in the third quarter of 2027.

Egypt’s Minister of Electricity, Mahmoud Esmat, stated during the signing ceremony that the project’s large-scale energy storage facilities will effectively enhance the grid’s peak shaving and valley filling capabilities, providing crucial technical support for the large-scale integration of renewable energy.

Infinity Power is a joint venture between Egypt’s Infinity and the UAE’s Masdar, a global investor in renewable energy. Both partners already have operational project experience within the Benban park. Hassan Allam Utilities Energy Platform is co-controlled by the European Bank for Reconstruction and Development and currently manages 2.3GW of projects under construction and a 1.65GW project pipeline, covering renewable energy sectors like wind and solar power.

This project aligns closely with Egypt’s renewable energy development strategy. It is reported that Egypt’s allocation for the electricity and renewable energy sector in the 2025 to 26 fiscal year has been increased to $2.8 billion USD, nearly doubling compared to the previous fiscal year, with the goal of raising the share of clean energy in the power mix to 20% by 2026.

Upon completion, this 1.2GW project will help propel Egypt towards its long-term targets of achieving 42% renewable energy by 2030 and 65% by 2040. If Egypt is successful on this path it can start exporting energy and revive the Desertec dream of uniting Africa’s solar energy to buyers in Europe.

The post More investments of 1.2 GW in Benban solar, Egypt appeared first on Green Prophet.

The United Arab Emirates is no longer just a story of oil wealth and desert skyscrapers — it’s a case study in how sovereign wealth can accelerate the global clean-energy transition. In just two decades, the UAE has turned its hydrocarbon legacy into one of the world’s most ambitious green-finance ecosystems, creating opportunities that now extend far beyond its borders.

At the heart of this transformation is Masdar, the UAE’s flagship renewable-energy company jointly owned by ADNOC, Mubadala, and TAQA. Once known for building the futuristic Masdar City, today it leads projects in over 40 countries across six continents. Masdar’s renewable portfolio has exceeded 50 GW, with a target of 100 GW and one million tonnes of green hydrogen by 2030. Its $1 billion green bond in 2025 — oversubscribed 6.6 times — shows how global investors are voting for its credibility.

Backing this is a surge of sovereign-level finance. At COP28, the UAE launched the Alterra Fund, a $30 billion climate-investment vehicle designed to mobilize $250 billion by 2030. The UAE Banks Federation has also pledged AED 1 trillion (~$270 billion) toward sustainable finance by 2030. Few countries have matched this scale of capital alignment between government, banks, and business.

The regulatory environment is catching up fast. Abu Dhabi Global Market (ADGM), Dubai International Financial Centre (DIFC), and the Securities & Commodities Authority (SCA) have all adopted frameworks for green and sustainability-linked bonds, ESG disclosure, and carbon trading. The AirCarbon Exchange, launched in 2022, became the world’s first regulated carbon-credit trading platform, positioning the UAE as a bridge between Asian and European carbon markets.

Why does this matter to investors? Because green finance in the UAE is not just policy — it’s deal flow. The market now channels billions into renewable energy, electric mobility, water security, and sustainable real estate. For global investors, this means access to well-structured, de-risked opportunities with sovereign backing — and proximity to the fastest-growing markets in Asia, Africa, and the Middle East.

Get our report: https://lnkd.in/dFKHYUfx

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