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Proposed $10,000 tax credit for homeowners to drive clean energy transition
Apr. 11, 2026 at 6:52pm
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New York State is proposing to double its distributed solar energy target from 10 gigawatts to 20 gigawatts by 2035, enough to power millions of homes and slash carbon emissions by 3.2 million metric tons. The plan also includes a $10,000 tax credit for homeowners installing solar panels, aimed at making clean energy more accessible and democratizing the energy grid.
The solar push is as much about political strategy as environmental stewardship, as Governor Kathy Hochul seeks to balance ambitious climate goals with soaring utility rates. By promoting solar, Hochul hopes to offer a win-win of cleaner energy and lower bills, but the plan also raises questions about grid capacity, battery storage, and the broader ideological divides around the state’s energy transition.
New York’s proposal would double the state’s distributed solar target from 10 gigawatts to 20 gigawatts by 2035, a move that would power millions of homes and significantly reduce carbon emissions. The $10,000 tax credit for homeowners is designed to make solar panels more affordable, especially for low-income households, democratizing access to clean energy. However, concerns have been raised about the grid’s ability to handle the influx of solar power, with Senator Mario Mattera questioning whether the infrastructure is ready. The state is betting on innovation in battery technology to address these challenges.
The Governor of New York, who is proposing the solar energy goals and tax credit as part of her reelection campaign.
A New York State Senator who has expressed skepticism about the state’s solar goals, questioning whether the grid infrastructure is ready to handle the influx of solar power.
“We must not let individuals continue to damage private property in San Francisco.”
— Robert Jenkins, San Francisco resident
“Fifty years is such an accomplishment in San Francisco, especially with the way the city has changed over the years.”
— Gordon Edgar, grocery employee
The state legislature will need to approve the proposed $10,000 solar tax credit for homeowners as part of the state’s budget process.
New York’s bold solar energy goals and tax incentives represent a high-stakes gamble to drive the state’s clean energy transition, balancing ambitious climate targets with concerns over grid capacity, affordability, and the broader political divides around the future of the state’s energy landscape.
Apr. 11, 2026
Apr. 11, 2026
Apr. 11, 2026
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The institutional investor added to its position in the solar cell manufacturer during Q4 2025.
Apr. 11, 2026 at 11:52am
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V Square Quantitative Management LLC bought a new position in First Solar, Inc. (NASDAQ:FSLR) in the 4th quarter, according to the company’s most recent SEC disclosure. The institutional investor purchased 2,724 shares of the solar cell manufacturer’s stock, valued at approximately $712,000.
This investment by V Square Quantitative Management LLC in First Solar reflects ongoing institutional interest in the solar energy sector, particularly in leading manufacturers like First Solar that have seen their stock prices rise significantly over the past year. The purchase also suggests the fund sees continued growth potential in First Solar’s business.
According to the SEC filing, V Square Quantitative Management LLC was not previously a shareholder in First Solar. The 2,724 shares purchased represent a new position for the fund. Several other hedge funds also increased their holdings in First Solar during the fourth quarter, including Woodline Partners LP, EverSource Wealth Advisors LLC, and Brown Advisory Inc.
An institutional investment management firm that purchased a new position in First Solar, Inc. in the fourth quarter of 2025.
A United States-based solar technology company that designs and manufactures thin-film photovoltaic modules using cadmium telluride semiconductor technology.
This purchase by V Square Quantitative Management LLC reflects the continued institutional investor interest in the solar energy sector, particularly in leading manufacturers like First Solar that have seen their stock prices rise significantly. The investment suggests the fund sees ongoing growth potential in First Solar’s business.
Apr. 11, 2026
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An analysis of 60 studies, as reported by pv magazine, indicates solar photovoltaic and wind technologies could provide the vast majority of global electricity generation by the middle of the century. The research from Finland’s LUT University suggests these two sources may supply between 80% and 100% of electricity by 2050 in scenarios achieving at least 95% renewable electricity, excluding nuclear power.
The systematic review examined how capital expenditure assumptions and modeling choices influence projections for solar photovoltaic deployment. It found that assumptions about photovoltaic costs are frequently pessimistic, with some studies projecting 2050 costs higher than current market levels. Lower projected costs generally correlate with higher anticipated shares of solar power in the energy mix.
Geographic factors also shape outcomes, with countries possessing substantial hydropower or geothermal resources showing lower projected solar shares. Regions with strong solar resources tend to show greater reliance on photovoltaics. The analysis notes that modeling often simplifies photovoltaic technology, overlooking diverse applications such as floating, bifacial, or building-integrated systems, which can affect land use and deployment potential.
Future photovoltaic costs are linked to global supply chain stability and geopolitical risks, according to the research. Historical experience suggests manufacturing value chains can be established rapidly across regions with moderate cost increases, indicating medium-term risks may be manageable. Concerns regarding critical raw materials are seen as limited, with expected resolutions for constraints like silver use in cell metallization through substitution technologies emerging around 2026.
The study highlights that modeling choices, including insufficient spatial or temporal resolution, can distort the estimated role of solar photovoltaics in future energy systems. The research considered studies covering the power, heat, and transport sectors to account for sector coupling effects.
Interactive table based on the Store Companies dataset for this report.
This report provides a comprehensive view of the global semiconductor device industry, tracking demand, supply, and trade flows across the worldwide value chain. It explains how demand across key channels and end-use segments shapes consumption patterns, while also mapping the role of input availability, production efficiency, and regulatory standards on supply.
Beyond headline metrics, the study benchmarks prices, margins, and trade routes so you can see where value is created and how it moves between exporters and importers worldwide. The analysis is designed to support strategic planning, market entry, portfolio prioritization, and risk management in the global semiconductor device landscape.
The report combines market sizing with trade intelligence and price analytics. It covers both historical performance and the forward outlook to 2035, allowing you to compare cycles, structural shifts, and policy impacts across countries and regions.
For the global report, country profiles provide a consistent view of market size, trade balance, prices, and per-capita indicators. The profiles highlight the largest consuming and producing markets and allow direct benchmarking across peers.
The analysis is built on a multi-source framework that combines official statistics, trade records, company disclosures, and expert validation. Data are standardized, reconciled, and cross-checked to ensure consistency across time series.
All data are normalized to a common product definition and mapped to a consistent set of codes. This ensures that comparisons across time are aligned and actionable.
The forecast horizon extends to 2035 and is based on a structured model that links semiconductor device demand and supply to macroeconomic indicators, trade patterns, and sector-specific drivers. The model captures both cyclical and structural factors and reflects known policy and technology shifts.
Each country projection is built from its own historical pattern and the regional context, allowing the report to show where growth is concentrated and where risks are elevated.
Prices are analyzed in detail, including export and import unit values, regional spreads, and changes in trade costs. The report highlights how seasonality, freight rates, exchange rates, and supply disruptions influence pricing and margins.
Key producers, exporters, and distributors are profiled with a focus on their operational scale, geographic footprint, product mix, and market positioning. This helps identify competitive pressure points, partnership opportunities, and routes to differentiation.
This report is designed for manufacturers, distributors, importers, wholesalers, investors, and advisors who need a clear, data-driven picture of global semiconductor device dynamics.
The market size aggregates consumption and trade data at country and regional levels, presented in both value and volume terms.
The projections combine historical trends with macroeconomic indicators, trade dynamics, and sector-specific drivers.
Yes, it includes export and import unit values, regional spreads, and a pricing outlook to 2035.
The report provides profiles for the largest consuming and producing countries, enabling benchmarking across peers.
Yes, it highlights demand hotspots, trade routes, pricing trends, and competitive context.
Report Scope and Analytical Framing
Concise View of Market Direction
Market Size, Growth and Scenario Framing
Commercial and Technical Scope
How the Market Splits Into Decision-Relevant Buckets
Where Demand Comes From and How It Behaves
Supply Footprint, Trade and Value Capture
Trade Flows and External Dependence
Price Formation and Revenue Logic
Who Wins and Why
Where Growth and Supply Concentrate
Commercial Entry and Scaling Priorities
Where the Best Expansion Logic Sits
Leading Players and Strategic Archetypes
Detailed View of the Most Important National Markets
How the Report Was Built
World's largest semiconductor foundry
Largest memory and IDM
Leading logic IDM, expanding foundry
Second largest memory maker
Third largest memory maker
Leading wireless chip designer
Leading infrastructure software and chips
Leader in AI and graphics chips
Leading CPU and GPU designer
Largest analog chip maker
Leading power and automotive semiconductor maker
Major European IDM, strong in automotive
Leading automotive semiconductor supplier
Designs chips for iPhones, Macs, etc.
Leading smartphone chipset vendor
Major high-performance analog company
Major foundry, second largest in Taiwan
Major foundry, strong in specialty processes
World's leading image sensor maker
Major NAND flash memory producer
Leading MCU and analog supplier
Major supplier of power and sensing solutions
Leading automotive and MCU supplier
Largest Chinese semiconductor foundry
Leading data infrastructure chip designer
Major NAND flash producer via JV with Kioxia
SK Hynix's foundry division
Major power and discrete device maker
Now part of AMD, FPGA leader
Leading RF and analog chip supplier
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Walmart’s $45 Foldable Solar Panel Charger Is Now Just $17 and Easy to Carry  Yahoo Tech
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Despite the Twentynine Palms City Council rejecting an offer from a solar developer, the issue has arisen once again after an assertive letter from the California Energy Commission has come to light. Reporter Heather Clisby has more … 
There was a narrow victory for opponents of a proposed solar farm at the March 23 Twentynine Palms City Council meeting when council voted to uphold the 2012 moratorium against such developments. 
In a letter dated March 27 and shared with Z107.7 this week, Jared Babula, attorney for the California Energy Commission (CEC), informed Robert Smith, attorney with K&L Gates LLP representing solar developer, E-Group, of its own power to supersede council rulings. 
Referencing E-Group’s proposed Geneva Solar Project as a “photovoltaic facility with an AC-output of 50 MW” the CEC asserted its own jurisdiction over the project’s future, specifically: 
“…the CEC has the exclusive power to certify the site and related facilities and the issuance of a certificate by the CEC for a project is in lieu of any local permit, certificate or similar document.” 
Councilmember April Ramirez, who cast the lone vote to accept the offered benefits package and move forward with the project, plans to keep the issue alive. 
“I fully intend to bring this up at the next council meeting along with the hundreds of letters from constituents that I have received asking for us to reconsider this. That day that they voted no, there were more people that wrote in in favor of it, almost twice as many as the people that were against it, and they still voted no,” said Ramirez. “It’s unfortunate but the overall consensus, at least that’s coming to me – people that feel safe enough to come to me – is that a very poor decision was made.”
Ramirez noted that while the March 23 meeting saw many in-person opponents of the project, many constituents in favor made their support clear through other means – phone calls, letters, emails and two petitions – one with 45 signatures and another with 20-30. She stated that the Brown Act dictates that councilmembers must weigh these expressions the same as an in-person statement. 
To formally revisit the issue, Ramirez would have to make a motion and have it seconded by a fellow councilmember for a future agenda item. 
“And what it really does, ultimately, it signals to any other developer or solar project or anything that wants to come here, ‘Don’t even waste your time with the city, just go straight to the state and don’t even try to do a negotiations package.’ So we’re closing doors of opportunity before they’ve even opened.”
The next meeting of the Twentynine Palms City Council is Tuesday, April 14.

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“Every ban chips away at a cruel industry.”
Photo Credit: Getty Images
Etsy, an online marketplace for independent stores to sell vintage items and handmade crafts, has announced a ban on the sale of fur products on its platform, according to Fashion United. 
This decision covers the sale of products made from animal species that are threatened or endangered, as well as products made with natural fur from animals, such as minks, foxes, and rabbits. Listings will be phased out by Aug. 11, 2026.
The Coalition to Abolish the Fur Trade applauded this shift in Etsy’s policy, following a 50-plus day protest campaign highlighting the environmental and ethical implications of fur harvesting.
“Etsy’s policy sets a new standard for online retailers. Fur is losing,” Suzie Stork, spokesperson for CAFT, stated. “Designers are dropping it, publications are not promoting it, and now, Etsy, one of the world’s largest e-commerce marketplaces, is banning it. The industry has nowhere left to hide.”
Animal pelts used in fashion are often sourced from breeding facilities or wild animals. 
These practices pose significant challenges for animal welfare, and the pollution from fur farms also jeopardizes the surrounding environment’s air and water quality, according to a study published in the journal Science of The Total Environment.
While corporate regulations on animal fur provide a hopeful outlook, there is still a long way to go.
However, advocacy groups like CAFT and the rise of alternative, humane products are challenging the fur industry.
With Etsy’s withdrawal from the fur market and luxury brands like Prada and Chanel ceasing to use fur, the landscape is changing.
Social media users were quick to welcome the news of Etsy’s policy change.
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“Huge win for biodiversity!” commented one user in response to a post about the news.
“Seeing foxes trapped like that breaks my heart. They deserve the woods, not wire cages. Every ban chips away at a cruel industry,” another wrote.
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Their breakthrough integrates a thin film into panels that not only protects the fragile solar cells but also captures mechanical energy from falling rain.
Photo Credit: iStock
Scientists have developed a new coating to capture the energy of rain falling on solar panels. 
While the impact of rain may seem minor, those tiny drops can generate measurable amounts of energy. According to recent research reported by Brighter Side News, Spanish scientists have now “demonstrated that the impact of a drop can create over 100 volts of electricity.”
Researchers from the Materials Science Institute in Seville published their findings in February. Their breakthrough integrates a thin film into panels that not only protects the fragile solar cells but also captures mechanical energy from falling rain. 
While widely available solar panels can already capture enough energy to power homes and reduce electricity bills, this innovation could unlock another way for panels to capture energy in the future. Those curious about how upgrading to solar can transform a home’s energy use now might consider connecting with EnergySage. 
Want to go solar but not sure who to trust? EnergySage has your back with free and transparent quotes from fully vetted providers in your area.
To get started, just answer a few questions about your home — no phone number required. Within a day or two, EnergySage will email you the best options for your needs, and their expert advisers can help you compare quotes and pick a winner.
“[This] establishes the potential for combining these two energy harvesting techniques in one device,” study co-author Carmen López-Santos told Brighter Side.
This work was designed to make advanced, highly efficient solar technology less susceptible to degradation caused by temperature, light, or moisture fluctuations. The new coating protects the somewhat fragile solar cell while allowing light to pass through. 
Fernando Núñez, a co-author and investigator with the Materials Science Institute, suggested that this more durable technology could be used to power self-sustaining appliances and devices, such as emergency lights and monitoring systems, in extreme weather conditions.
While this technology is, for now, at just the proof-of-concept stage, modern solar panels can already help to support homes’ resilience to major storms when the power grid goes down — all while delivering massive savings even when the weather is fine. Some homeowners are even seeing six-figure savings on their bills by making the shift to solar.
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Want to go solar but not sure who to trust? EnergySage has your back with free and transparent quotes from fully vetted providers that can help you save as much as $10k on installation.
To get started, just answer a few questions about your home — no phone number required. Within a day or two, EnergySage will email you the best local options for your needs, and their expert advisers can help you compare quotes and pick a winner.
And EnergySage’s free services can help prospective buyers find the best solar panels for their home and budget, too. Those who use its tools can save up to $10,000 on solar purchases and installation costs. Plus, EnergySage offers a helpful mapping tool that provides state-by-state price comparisons and information on local incentives, so users can be sure they’re getting the best price possible. 
If you’re serious about taking control of your home energy security — or even going completely off-grid — you might also think about pairing solar panels with a home battery backup. Experts at EnergySage can help you here, too, by connecting you with information and competitive installation estimates.
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Species-rich planting was proposed alongside sheep grazing(Image: RWE Renewables UK)
A controversial “Butterfly solar farm” planned south of Wrexham City has been scrapped. Developer RWE Renewables UK cited “grid connection availability” as a reason for the decision.
The 99.9MW solar and battery storage scheme was to have been built adjacent to the A483 near Johnstown, with two further arrays near Royton and Plassey Holiday Park to the east. The three sections were to be linked by underground cabling, with a further connection running to the Legacy National Grid substation near Rhos.
From the outset, RWE had identified grid connections as one of the scheme’s key design challenges. By September 2025, two separate connection routes were under consideration.
In an email to local politician Ken Skates, RWE confirmed it had made the “regrettable” decision not to proceed. The email said: “Following a detailed review of grid connection availability and overall project viability, it has been concluded that the site cannot be advanced at this time.”
The 360-acre facility was named the “Butterfly” solar farm (Glöyn Byw in Welsh) due its biodiversity commitments. Its design was developed by RWE project manager Robin Johnson, a trained ecologist and wildlife conservationist.
The proposal included 39 acres of wildlife-friendly habitat, including wildflower meadows designed to boost local butterfly and bee populations. Sign up for the North Wales Live newsletter sent twice daily to your inbox
By incorporating beehives, bird nesting boxes and around 5km of new hedgerows, the project aimed for biodiversity gain of at least 50%. The site was to have been grazed by sheep.
Ironically, a major concern voiced by local people during last year’s consultations was the scheme’s potential threat to wildlife. Others included loss of farmland, traffic increases and proximity to people’s homes.
Mr Skates said: “Local people had expressed wide-ranging concerns about this project. Several local community councils – including Marchwiel, Ruabon, Erbistock & Eyton and Sesswick – had also objected to the project, so a lot of people will be breathing a huge sigh of relief.
“The vast majority of people I speak to are in favour of more of our energy coming from renewable sources, but there were so many issues raised about this particular scheme from the outset.”
RWE claimed the scheme would be capable of generating enough electricity for more than 34,775 homes.
The proposal also included a £1.5m community benefit fund, 3km of new permissive footpaths and more than £4.8m in business rates over the development’s 40-year lifetime.
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Solarport has introduced a new line of modular photovoltaic carports, according to a report by pv magazine. The PowerPark PRO Series is designed to meet parking space standards in the United Kingdom and the European Union, including provisions for accessible parking.
The modular series includes four distinct models intended for different site conditions and orientations. The M model is for locations with limited space and is configured for south-facing installations. The R variant suits more constrained layouts and allows for lower tilt angles. The G model is presented as a solution for east-west oriented car parks.
Specific configurations within these models support different numbers of portrait-oriented solar modules and accommodate varying module lengths. The structural design uses specified grades of galvanized and coated steel for durability. The systems are engineered to handle defined wind speeds and snow loads, and they comply with listed British and European engineering standards.
The carport structures can be installed on ground with a slight incline and can scale to cover multiple parking bays over a considerable length. The company stated that the product development involved client feedback to address market requirements.
Making Data-Driven Decisions to Grow Your Business
A Quick Overview of Market Performance
Understanding the Current State of The Market and its Prospects
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Choosing the Best Countries to Establish Your Sustainable Supply Chain
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The Largest Producers on The Market and Their Profiles
The Largest Markets And Their Profiles
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UV Resistant Stickers Solar Labels – Value Packs – Save Up To 50 Photovoltaic Labels  primetimes.id
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Water Heating Systems, a provider based in Adana, has presented a new line of photovoltaic-powered water heating systems. According to pv magazine, the DC Sunboil range was introduced at a trade show in Istanbul.
The systems are designed for residential and small commercial applications. They operate without an inverter by using direct current from solar panels. This design is intended to lower initial costs and reduce complexity while improving reliability, particularly in off-grid settings.
The technology uses an extra-low voltage of under 50 volts for safety. A typical configuration involves four standard photovoltaic panels connected in parallel, providing roughly 1.6 kilowatts of capacity. The setup is flexible and allows for the addition of more panels.
Each unit integrates maximum power point tracking to optimize energy harvest. The systems also support hybrid operation with a backup AC heating element rated up to 2 kilowatts to ensure supply during periods of low sunlight.
The product series comes in five tank sizes, from 120 liters to 500 liters, to accommodate different numbers of users. All models function at a maximum working pressure of 0.6 megapascals and include two MPPT trackers. The photovoltaic input can support up to 1.2 kilowatts of DC power.
A key stated advantage is the direct conversion of solar energy into heat, which avoids losses associated with power conversion and battery storage. The water tank itself acts as the thermal storage unit. The system is not designed for electricity generation or grid feed-in.
On average, the system can produce about 3 kilowatt-hours of thermal energy per day, with performance varying by season and sunlight. It heats water to an adjustable temperature range between 65 and 85 degrees Celsius. While battery integration is technically possible, the primary design relies on thermal storage.
The company currently sells its products in Turkey and has expressed a hope to expand its customer base internationally.
This report provides a comprehensive view of the non-domestic percolators and equipment for cooking or heating food industry in Turkey, tracking demand, supply, and trade flows across the national value chain. It explains how demand across key channels and end-use segments shapes consumption patterns, while also mapping the role of input availability, production efficiency, and regulatory standards on supply.
Beyond headline metrics, the study benchmarks prices, margins, and trade routes so you can see where value is created and how it moves between domestic suppliers and international partners. The analysis is designed to support strategic planning, market entry, portfolio prioritization, and risk management in the non-domestic percolators and equipment for cooking or heating food landscape in Turkey.
The report combines market sizing with trade intelligence and price analytics for Turkey. It covers both historical performance and the forward outlook to 2035, allowing you to compare cycles, structural shifts, and policy impacts.
This report provides a consistent view of market size, trade balance, prices, and per-capita indicators for Turkey. The profile highlights demand structure and trade position, enabling benchmarking against regional and global peers.
The analysis is built on a multi-source framework that combines official statistics, trade records, company disclosures, and expert validation. Data are standardized, reconciled, and cross-checked to ensure consistency across time series.
All data are normalized to a common product definition and mapped to a consistent set of codes. This ensures that comparisons across time are aligned and actionable.
The forecast horizon extends to 2035 and is based on a structured model that links non-domestic percolators and equipment for cooking or heating food demand and supply to macroeconomic indicators, trade patterns, and sector-specific drivers. The model captures both cyclical and structural factors and reflects known policy and technology shifts in Turkey.
Each projection is built from national historical patterns and the broader regional context, allowing the report to show where growth is concentrated and where risks are elevated.
Prices are analyzed in detail, including export and import unit values, regional spreads, and changes in trade costs. The report highlights how seasonality, freight rates, exchange rates, and supply disruptions influence pricing and margins.
Key producers, exporters, and distributors are profiled with a focus on their operational scale, geographic footprint, product mix, and market positioning. This helps identify competitive pressure points, partnership opportunities, and routes to differentiation.
This report is designed for manufacturers, distributors, importers, wholesalers, investors, and advisors who need a clear, data-driven picture of non-domestic percolators and equipment for cooking or heating food dynamics in Turkey.
The market size aggregates consumption and trade data, presented in both value and volume terms.
The projections combine historical trends with macroeconomic indicators, trade dynamics, and sector-specific drivers.
Yes, it includes export and import unit values, regional spreads, and a pricing outlook to 2035.
The report benchmarks market size, trade balance, prices, and per-capita indicators for Turkey.
Yes, it highlights demand hotspots, trade routes, pricing trends, and competitive context.
Report Scope and Analytical Framing
Concise View of Market Direction
Market Size, Growth and Scenario Framing
Commercial and Technical Scope
How the Market Splits Into Decision-Relevant Buckets
Where Demand Comes From and How It Behaves
Supply Footprint and Value Capture
Trade Flows and External Dependence
Price Formation and Revenue Logic
Who Wins and Why
How the Domestic Market Works
Commercial Entry and Scaling Priorities
Where the Best Expansion Logic Sits
Leading Players and Strategic Archetypes
How the Report Was Built
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Cowan began the test at 7:30 a.m., just after sunrise, while his Powerwall 3 was completely drained.
Photo Credit: TikTok
A homeowner recently took to TikTok to reveal the surprising speed at which a Tesla Powerwall 3 can recharge while only using solar panels for energy during a sunny day. 
The original poster, Ryan (@RyanJayCowan), revealed details and a video of his family’s energy setup that provides enough power for their entire home. 
Cowan began the test at 7:30 a.m., just after sunrise, while his Powerwall 3 was completely drained. By 9 a.m., the solar panels were fully ramped up and were drawing 5 kilowatts of power, the battery system’s maximum input, into the backup battery. 
At this point, the panels were generating even more power than the battery could handle at a given time. So, to take advantage of the excess energy, Cowan plugged in his electric vehicle to essentially charge for free using the power captured by his solar system. 
Want to go solar but not sure who to trust? EnergySage has your back with free and transparent quotes from fully vetted providers in your area.
To get started, just answer a few questions about your home — no phone number required. Within a day or two, EnergySage will email you the best options for your needs, and their expert advisers can help you compare quotes and pick a winner.
Pairing solar power with a whole-home battery backup like Cowan’s is one of the most proven ways to protect your home from frustrating power outages, all while dramatically reducing your utility bills. If this video has you curious about upgrading your own home, check out EnergySage to get quick installation quotes and compare vetted installers. 
Cowan explained that at 11:30 a.m., his entire battery was recharged. 
“It only took four hours to recharge on solar,” Cowan says. “Now, this battery will be able to power our entire home for the rest of today and tonight.” 
Testimonies like this are not rare, and more and more homeowners are seeing the benefits of fossil-free energy. Down in the comments, a few users shared their excitement about the potential of solar and batteries. 
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Home > Sustainability > Energy > Aradei Capital and LabelVie Launch Major Solar Energy Program Across Morocco
Aradei Capital and LabelVie
Agadir – Aradei Capital and LabelVie have announced the launch of a large-scale solar energy program aimed at equipping their sites with photovoltaic power systems, contributing to the national energy transition strategies.
The initiative will see the deployment of solar installations across the companies’ real estate portfolio. The first phase of the project, currently underway, covers nine sites with around 25,000 m² of rooftop space equipped and an installed capacity of 5 MWp expected to become operational in 2026.
The program is set to expand significantly in the longer term, reaching nearly 60 assets across Morocco and targeting a total capacity of around 20 MWp. 
In particular, the two groups said they expect the project to substantially reduce CO₂ emissions while improving energy efficiency across their operational sites.
Beyond rooftop solar systems, Aradei Capital and LabelVie are also considering additional solutions, including photovoltaic shading structures in parking areas, energy storage systems, and other energy efficiency technologies.
‘Combine innovation, economic performance, and positive environmental impact’
Commenting on the project, LabelVie CEO Naoual Ben Amar said the initiative represents a “major milestone” in the group’s sustainability commitments. “As a key player in retail in Morocco, we are committed to promoting an ambitious energy transition and strengthening our resilience in the face of climate challenges,” Ben Amar explained. 
“This shared ambition with Aradei Capital perfectly illustrates our ability to combine innovation, economic performance, and positive environmental impact. We are proud to contribute to a more sustainable future while continuing to meet the expectations of our customers and partners.” 
Aradei Capital CEO Nasser Benjelloun meanwhile described the project as a key milestone, echoing Ben Amar’s optimism and excitement about the joint venture’s prospects.  
“This strategic impact-driven project marks a key milestone in our sustainable development approach, Bricks For Impact,” he said. “Our ambition perfectly combines innovation and environmental responsibility, and we are proud to collaborate with our long-standing partner LabelVie.”
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Hundreds of Fort Smith farmers market shoppers today were shaded by a solar panel canopy that generates electricity which is sold back to OG&E.
Josh Buchfink, the Communications Director for the City of Fort Smith, said the electricity is sold back to the grid, and that sale covers the operation and maintenance costs of the solar panels.
“They also provide shade and some safety from the elements if it rains,” said Buchfink.
The total cost of the Farmers Market solar canopy was $1.4 million.
In years past, the farmers market was covered by tents on sections of parking lots.
“It’s adding to downtown Fort Smith. It’s making our Farmers Market more inviting.
Buchfink estimated there are 300 to 400 shoppers that visit each Saturday farmers market, which is open from 7 a.m. to noon.
According to the City of Fort Smith’s website, Fort Smith’s solar power subscription with OG&E saves the city approximately $47,000 a year in energy costs.
Hearst Television participates in various affiliate marketing programs, which means we may get paid commissions on editorially chosen products purchased through our links to retailer sites.

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Scientific Reports volume 15, Article number: 36618 (2025) Cite this article
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This study investigates the influence of magnesium (Mg) doping on ZnO thin films prepared through spin coating to enhance their efficiency and stability in perovskite solar cells (PSCs). The incorporation of Mg significantly enhanced charge transport, reduced recombination losses, and enhanced overall device stability. The structural, optical, morphological, and electrical properties were investigated using UV-Vis spectroscopy, field-emission scanning electron microscopy (FESEM), energy-dispersive X-ray spectroscopy (EDX), and Hall Effect measurement. SCAPS-1D simulation software was utilized to study the performance of the solar cell under different Mg doping concentrations in order to determine the optimum conditions for the maximum power conversion efficiency (PCE). Simulation findings exhibit adequate utility regarding power conversion efficiency (PCE) gain of around 21.89% with optimized Mg doping, which is equivalent to undoped ZnO film performance. While the PEC performance of the doped ZnO is comparable to that of its undoped counterpart, this study reveals notable improvements in optical tunability, charge transport properties, and, in simulations, reduced defect-related trap densities that suggest more favorable band alignment. Simulation results show enhanced PCE of 21.89% under optimal Mg doping compared to undoped ZnO, along with substantial band alignment adjustments, optical tunability, and charge transport. While efficiency enhancements are marginal, these developments signify future possibilities toward enhanced device longevity. Results displayed are SCAPS-1D simulation-based, and experimental validation is required to determine device-level stability and performance. It should be noted that any additional device fabrication or physical characterization are not possible at this time; hence, conclusions are limited to the simulation results and film-level characterizations given in this document.
Perovskite solar cells (PSCs) have emerged as a promising alternative to traditional silicon-based photovoltaics, achieving notable efficiency improvements in a relatively short period^1,2,3,4,5. Their solution-processable nature, high absorption coefficients, and adjustable bandgap offer significant advantages in manufacturing flexibility and potential cost reduction^6,7,8,9. However, the long-term stability of PSCs remains a critical challenge that must be addressed before they can be widely adopted commercially^10,11,12. To overcome this hurdle, researchers are actively exploring various material and structural modifications to enhance both performance and durability. A key focus in improving PSC performance is optimizing electron transport layers (ETLs), with ZnO thin films being a preferred choice due to their excellent electrical conductivity and high optical transparency^13,14,15,16. Nonetheless, pure ZnO is characterized by high surface defects, which can lead to increased charge recombination and reduced overall efficiency. To address this limitation, researchers have investigated doping of ZnO with various elements, such as magnesium (Mg)^17,18, and gallium (Ga)¹⁹,  as well as other metallic elements^20,21,22. This approach has shown potential in enhancing the electronic properties of ZnO, modifying its band structure, and improving stability. Magnesium (Mg²⁺) is a particularly promising dopant because its ionic radius (0.72 Å) is very similar to Zn²⁺ (0.74 Å) and would likely substitute into the ZnO lattice with minimal distortion. The incorporation of Mg decreases the ZnO bandgap, passivates oxygen vacancy defects, and enhances UV stability²³. Several reports indicate that Mg-doped ZnO can tune the bandgap from ~ 3.25 eV (undoped) to > 3.4 eV depending on concentration, which also improves transparency and reduces non-radiative recombination^24,25. Even more exciting, pioneering work^26,27 has shown that dopant engineering in ZnO has a major impact on perovskite solar cell efficiency and stability, providing additional motivation for this work. By fine-tuning the composition and properties of the ETL through doping, scientists aim to develop more efficient and durable PSCs, thereby facilitating their integration into next-generation solar cell technologies.
While ZnO-based electron transport layers (ETLs) offer several advantages, their widespread use in perovskite solar cells (PSCs) is hindered by challenges such as limited chemical stability and suboptimal charge extraction. Magnesium (Mg) doping can effectively address these issues by increasing the bandgap, enhancing charge carrier mobility, and reducing recombination losses^28,29,30. Although Mg-doped ZnO thin films have been explored to improve PSC performance, the specific combination of spin coating as a fabrication method, with an emphasis on both efficiency and stability, is less frequently highlighted in this field. Recent studies have focused on the structural and optical properties of Mg-doped ZnO thin films, which are crucial for PSC applications. For example, research on Mg₀.₂₉Zn₀.₇₁O/ZnO bilayers has shown that annealing induces Mg diffusion across the interface, significantly altering the photoluminescence spectra³¹. At higher annealing temperatures, this diffusion leads to a transition from discrete near-band-edge UV luminescence peaks to a single peak, indicating a fully intermixed layer³². Mg incorporation reduces surface roughness and modifies nonlinear optical properties, such as second and third harmonic generation, as demonstrated by another study on spray pyrolyzed Mg: ZnO thin films, suggesting potential for optoelectronic applications. Investigations into Zn₁₋ₓMgₓO nanocrystals synthesized using low-temperature techniques have also revealed that increasing the Mg content results in a bandgap increase and lattice compaction up to 4 eV for x = 0.17, along with notable changes in photoluminescence behavior^33,34,35,36. These studies highlight the importance of Mg doping in modifying the optical and structural properties of ZnO thin films, which can be leveraged to enhance the stability and performance of PSCs.
This study explores the ideal concentration of magnesium (Mg) doping to improve the performance of zinc oxide (ZnO) in perovskite solar cell (PSC) applications. The research uses the spin-coating method to fabricate and characterize the physical and opto-electronic properties of magnesium-doped zinc oxide (MZO) thin films. Following this, the photovoltaic performance of perovskite solar cells is assessed through SCAPS-1D simulations. SCAPS-1D has been utilized widely for simulating perovskite solar cells by solving the Poisson and continuity equations in order to predict device performance parameters, including J–V characteristics, band alignment, and interfacial recombination effects³⁷.
The development of ZnO-based thin films has significantly influenced the performance of perovskite solar cells. ZnO, with its high electron mobility and favorable energy band alignment, is widely utilized as an electron transport layer (ETL) in PSCs. However, inherent defects in undoped ZnO, such as oxygen vacancies and surface states, contribute to charge recombination and instability^38,39. Therefore, modifying ZnO through doping techniques has been extensively studied to optimize its electrical and optical properties.
The electron transport layer (ETL) plays a crucial role in the functionality of perovskite solar cells (PSCs) by facilitating efficient extraction and transport of charge carriers while minimizing energy losses^40,41. Among the commonly used ETL materials such as ZnO, SnO₂, and TiO₂, zinc oxide (ZnO) has garnered significant attention owing to its ease of fabrication and superior electrical properties. These attributes make ZnO a promising candidate for the large-scale production and commercialization of PSCs^42,43. However, the use of pure ZnO as an ETL is not without challenges, as it often exhibits photochemical instability when exposed to ultraviolet (UV) radiation, which can lead to degradation of the sensitive perovskite layer and ultimately compromise the overall performance and longevity of the solar cell^{44,45,46,47,48}. To address these limitations and enhance the stability of ZnO-based ETLs, various doping strategies have been explored. Magnesium (Mg) doping, in particular, has shown promising results in mitigating photochemical instability issues associated with pure ZnO. By incorporating Mg into the ZnO lattice, the resistance of the material to UV-induced degradation is significantly enhanced. This improved stability, combined with the inherent advantages of ZnO, has led to notable improvements in PSC efficiency⁴⁹. The Mg-doped ZnO ETL not only retains the favourable electrical properties of ZnO, but also provides a more robust interface with the perovskite layer, leading to improved charge extraction and reduced recombination losses^50,51,52. These advancements in ETL engineering have contributed to ongoing efforts to develop high-performance, stable, and commercially viable perovskite solar cells.
Mg doping in ZnO alters its electronic structure and significantly enhances its optoelectronic properties, making it an excellent candidate for electron transport layers (ETLs) in perovskite solar cells (PSCs). Incorporating Mg into the ZnO lattice widened the bandgap, thereby improving the transparency of the material in the visible spectrum. This increased transparency allows for better light transmission to the active layer of the solar cell, potentially boosting overall device efficiency⁵³. Moreover, Mg doping suppresses intrinsic defect states within the ZnO structure, particularly reducing the density of deep-level trap states that can act as recombination centres for the charge carriers. The reduction in trap states and improved electronic structure of Mg-doped ZnO lead to enhanced electron conductivity and charge carrier mobility^54,55,56. This improvement in the charge transport properties is crucial for the performance of ETLs in PSCs, as it enables more efficient extraction of electrons from the perovskite layer and their transport to the electrode. The combination of higher transparency and improved charge transport results in reduced recombination losses within the solar-cell structure. Consequently, Mg: ZnO ETLs can contribute to higher open-circuit voltages, improved short-circuit currents, and enhanced power conversion efficiencies in PSCs. These advantages make Mg-doped ZnO a promising material for improving the performance and stability of perovskite-based photovoltaic devices.
The structural properties of Mg: ZnO (ZMO) thin films have been studied to optimize their performance in PSCs. Mg incorporation into the ZNO structure leads to a change in the lattice constants compared to the pure ZNO, which is due to the substitution of Zn²⁺ ions with Mg²⁺ ions, which have a smaller ionic radius. The crystallite size and orientation of ZMO films can be controlled by adjusting the Mg concentration and deposition parameters, allowing for the tailoring of film properties to suit specific device requirements⁵⁷. Figure 1 presents a glimpse of the comparison between ZNO and ZMO thin film structures.
Reprinted with permission from ref⁵⁸. Copyright 2012, American Chemical Society.
Comparison between the chemical structure and microstructure of pure ZnO and Mg-doped ZnO.
On the other hand, ZMO films are expected to exhibit comparatively high transparency in the visible region, with a blue shift in the absorption edge depending on the Mg content. This optical tuning is highly advantageous for PSCs, as it allows for better light transmission to the perovskite absorber layer while maintaining effective charge separation⁵⁷. Furthermore, photoluminescence studies have shown that Mg doping can reduce defect-related emissions in ZnO, potentially leading to decreased charge recombination at the ETL/perovskite interface. The combination of these structural and optical enhancements makes Mg: ZnO a promising candidate for high-performance ETLs in next-generation PSCs, offering the potential for improved device efficiency and stability^59,60.
The fabrication of Mg-doped ZnO thin films involves a multi-step process aimed at achieving uniform film deposition with optimal crystallinity. The precursor solution consists of zinc acetate tetrahydrate and magnesium nitrate dissolved in ethanol, followed by continuous stirring to ensure homogeneity. The ZnO precursor solution was prepared by dissolving 2195 mg of zinc acetate tetrahydrate and 625 mg of ethanolamine in 100 mL of ethanol to create a 0.1 M solution. The ethanolamine acts as a stabilizing agent, ensuring a clear and homogeneous solution. The mixture was stirred continuously until the zinc acetate seemed to be completely dissolved. The resulting solution was then filtered using a 0.22 μm PTFE filter to remove the undissolved/agglomerated particles to ensure a clear solution for film development using a spin-coating system, as shown in Fig. 2.
Fabrication process of ZMO thin films; precursor solution (Sol-gel) to film development (spin coating process).
The spin-coating technique is then employed at 4000 rpm to deposit the solution onto FTO substrates, forming a smooth and defect-free thin film. The spin-coating process involves three steps: initially, the substrate was spun at 1000 rpm with an acceleration of 30 rpm/s² for 10 s. The speed was then increased to 4000 rpm with an acceleration of 30 rpm/s² and maintained for 40 s to ensure even spreading of the solution onto the substrate. Finally, the speed was reduced back to 1000 rpm with an acceleration of 30 rpm/s² for 10 s to finalize the coating process. Following deposition, the films undergo annealing to convert the precursor films into the desired ZnO form. The high-temperature annealing process further enhances the film’s crystallinity by removing residual organic compounds. Several samples were subjected to annealing at 300 °C on a hot plate for different durations ranging from 5 to 25 min. These annealing time variations have been observed in the film properties and performance.
To analyze the fabricated films, multiple characterization techniques were employed. XRD was used to confirm the crystal structure and phase composition of Mg: ZnO films. UV-Vis spectroscopy provided insights into their optical transmittance and bandgap variation. FESEM and EDX analysis was conducted to examine the surface morphology and elemental composition. Finally, Hall Effect measurements were performed to evaluate carrier concentration, mobility, and resistivity, ensuring that Mg doping effectively enhanced electrical properties.
A simulated PSC structure of CuO/Cs₂AgBiBr₆/ZnO: Mg/FTO was used (as shown in Fig. 3) to assess the impact of Mg doping on ZnO thin films. The ZnO: Mg layer’s doping concentration and thickness were varied systematically to determine the optimal parameters for efficiency enhancement.
Schematic of the PSC device structure.
UV-Vis spectroscopy confirmed increased transparency for Mg-doped ZnO, with an optimal bandgap of 3.1 eV. During the UV-Vis characterization process, all samples underwent exposure to light as part of assessing their performance in solar cells. This characterization involved subjecting the samples to varying wavelengths of light to evaluate their absorption capabilities across the solar spectrum. The resulting absorbance data (presented in Fig. 4), collected at different wavelengths, offered valuable insights into the efficiency of light absorption by the samples across the spectrum, contributing to a comprehensive understanding of their solar cell performance.
UV-Vis absorbance spectra of pure ZnO (a), and Mg-doped ZnO (b) thin films and the bandgap shift (c) in terms of doping content.
FESEM images indicated better grain distribution, leading to smoother film surfaces. The FESEM characterization was performed on two samples: pure ZnO at a 15-minute annealing time and ZnO: Mg with a 2% doping concentration. The images of the tested samples are shown in Fig. 5. FESEM pictures of ZnO thin films show considerable changes in surface morphology between undoped ZnO (a) and magnesium-doped ZnO (b) samples. Images were acquired using FESEM at the magnifications and scale bars reported in the figure. Because additional FESEM imaging is not possible at present, the comparisons of surface morphology included in this manuscript are qualitative in nature. Quantitative grain-size or pore analysis will be performed in future work when raw images and full imaging metadata are available.
Surface morphology of (a) undoped ZnO and (b) 2 at% Mg-doped ZnO thin films. The images illustrate enhanced grain uniformity and reduced clustering due to Mg incorporation.
The undoped ZnO has a surface covered in small, distinct dots, most likely ZnO particles. These dots suggest a granular appearance, with ZnO particles appearing loosely packed rather than equally dispersed across the surface. This non-uniformity in particle distribution is supposed to cause differences in surface roughness and affect the film’s optical and electrical properties. The granular structure of ZnO shows that particles tend to agglomerate in clusters rather than create a continuous, smooth film. From figure (b), the magnesium-doped ZnO, on the other hand, has a significantly different surface morphology, with particles arranged more uniformly and evenly. The particles in ZnO: Mg appear to be more evenly distributed throughout the surface, indicating a more consistent coating. This even distribution is due to the effects of magnesium doping, which improves the homogeneity and consistency of the ZnO coating. The presence of magnesium ions may allow for a more regulated development process, resulting in a finer and more consistent surface texture. The introduction of Mg²⁺ produces a smoother and more uniform film morphology, presumably because Mg²⁺ can act as a substitute for Zn²⁺ with minimal lattice strain, thus allowing for homogeneous nucleation and growth. In RSC electrodeposited films, Mg doping created “more compact, flat, and smoother films” with grains that were uniformly distributed⁶¹. Likewise, sol–gel–derived ZnO: Mg films transitioned from wrinkle-like to smoother surface features with higher Mg contents⁵⁴. This increased uniformity in ZnO: Mg may improve the optical transparency and electrical conductivity, making it more appropriate for applications like transparent conductive electrodes and thin-film transistors.
The XRD patterns of Mg-doped ZnO thin films with varying doping concentrations (0–3 at%) exhibit obvious differences in peak intensity and shape, as indicated in Fig. 6. All the samples exhibit characteristic ZnO peaks, confirming the wurtzite hexagonal phase⁵² and agree with JCPDS card No. 36-1451]. The appearance of prominent peaks indicates that the films are polycrystalline in nature. No secondary phases or impurity peaks appear, suggesting that Mg is well incorporated into the ZnO lattice without altering the crystal structure. It was discovered that the relative strength of the principal XRD peaks ((1 0 0), (0 0 2), (1 0 1)) varies with Mg doping concentration. The variation of relative peak intensities may be related to the replacement of Zn²⁺ ions by Mg²⁺ ions. This can be attributed to the fact that the ionic radius of Mg²⁺ (0.57 Å) ions is smaller than that of Zn²⁺ (0.60 Å)⁶². However, this dissimilarity between the ionic radii could lead to the micro-strain and dislocation densities.
X-ray diffraction pattern of undoped ZnO, Mg-doped ZnO thin films.
A notable observation is that a minor shift in peak position is observed with rising Mg concentration, which may be attributed to lattice distortion due to the replacement of Zn²⁺ (0.74 Å) by the slightly smaller Mg²⁺ ions (0.72 Å). This change confirms the development of a solid solution and reflects lattice strain due to Mg incorporation that can be seen in Table 1. While peak intensity is sometimes used as a proxy for crystallinity, in our data, the Mg-doped films exhibit lower peak intensities than the undoped film (e.g., the (101) reflection drops from ~ 1000 counts to ~ 500 counts at 2–3 at% Mg). Because intensity is also affected by film thickness, preferred orientation, and measurement conditions⁶³, we do not use intensity alone to infer crystallinity here. Instead, we note that the persistence of well-defined wurtzite reflections across all samples indicates phase retention, and we discuss charge-transport improvements based on morphology/optical trends and simulated band alignment rather than absolute peak intensity. The improved crystallinity and lack of secondary phases in the Mg-doped ZnO indicate that low doping levels can have an equally great influence on structural order, and correspond with our expectations based on previous studies on doping.
The crystallite size (D) of the films was estimated using a well-known formula. Furthermore, to realize the atomic displacement, dislocation densities and microstrains were evaluated using the equation given previously⁶⁴.
where D is the average crystallite size, β is the FWHM of the reflection peak with the same maximum intensity in the diffraction pattern, λ is the X-ray wavelength (0.15406 nm), θ is the Bragg diffraction angle, and n is a factor that is nearly equal to unity for the lowest dislocation density. The estimated results are shown in Table 1.
It was found that peak height along the plane (101) was decreased with the increase of Mg. These phenomena indicate that the crystallographic structure of ZnO thin films is deteriorating due to ionic replacement. As the Zn²⁺ ions are replaced by Mg²⁺ ions, as we mentioned earlier, the micro-strains are becoming stronger. The increase of dislocation density and micro-strain, with the increase of Mg doping, could also be realized from the change of mean crystallite sizes. Also, the Mg²⁺ ions migrating to the ZnO lattice may lead to point defects and/or interstitial defects, which may influence the dislocation of atoms in the film.
Energy Dispersive X-ray Spectroscopy (EDX) performed in conjunction with Field Emission Scanning Electron Microscopy (FESEM) provides detailed information about the elemental composition of the sample. The EDS result (shown in Fig. 7) for undoped ZnO (a) shows a high concentration of zinc (Zn) and oxygen (O), as expected for ZnO. The quantitative examination reveals that Zn and O are the primary ingredients, with oxygen having a weight% (Wt%) of 18.35% and an atomic percentage (at%) of 59.36%, and zinc having a Wt% of 7.89% and an at% of 6.24%. The spectrum also shows peaks for tin (Sn) and silicon (Si), with tin present in large amounts at 72.18% Wt% and 31.47% at%. The elevated tin content is due to the use of fluorine-doped tin oxide (FTO) glass as a substrate throughout the experiment. The low presence of silicon could be attributed to trace contaminants or the equipment environment. Figure 7 (b) reveals that the integration of Mg into the ZnO matrix, with a Wt% of 3.74% and at% of 5.98%. This confirms the successful doping of magnesium into the ZnO structure. The oxygen and zinc contents are consistent with those in pure ZnO, with oxygen at 25.28% Wt% and 61.37% at%, and zinc at 7.94% Wt% and 4.72% at%.
Elemental Composition and EDX spectrum graph of ZnO (a) and ZMO (b).
The Hall effect measurements of pure ZnO thin films revealed significant differences in the electrical properties based on the annealing duration (in Table 2). The sample annealed for 15 min exhibited the highest carrier concentration of 4.121E + 20 cm³/Vs, while the sample annealed for 10 min showed the lowest carrier concentration of 1.308E + 15 cm³/Vs. The highest mobility was observed in the sample annealed for 5 min, whereas the lowest mobility was found in the 10-minute annealed sample. These variations can be attributed to differences in crystallinity and defect density introduced during the annealing process. Shorter annealing times might not fully activate the dopants or heal defects, while optimal annealing enhances crystallinity and reduces defect density, improving electrical properties. Excessive annealing, however, may introduce new defects, reducing carrier concentration and mobility. For the ZMO thin films, the sample with 2% Mg doping exhibited the lowest carrier concentration of 9.471E + 16 cm³/Vs, while the undoped sample had the highest carrier concentration of 6.032E + 20 cm³/Vs (obtained results are summarized in Table 3). The highest mobility was recorded for the 2% magnesium-doped sample, whereas the 0.5% doped sample had the lowest mobility.
These results suggest that magnesium doping at an optimal concentration can significantly enhance mobility by reducing grain boundary scattering and defect density, despite reducing carrier concentration due to compensation effects or formation of deep-level traps. Conversely, excessive doping might introduce additional scattering centers, reducing overall carrier concentration but still enhancing mobility due to improved crystalline quality. Hall Effect measurements showed enhanced electron mobility and reduced resistivity, indicating improved charge carrier dynamics. These findings suggest that low-level Mg doping introduces beneficial structural modifications that compensate for the reduced carrier concentration by enhancing mobility, a known trade-off in optimized ZnO-based systems.
The simulation performance (conducted by using SCAPS-1D simulation tools) of the PSCs configured with ZnO films and ZMO (prepared with different doping concentrations) films was analyzed to determine the optimal doping concentration that effectively improves the PSCs’ performance. To model device performance for the structure: FTO/ZnO: Mg (ETL)/Cs₂AgBiBr₆ (absorber)/CuO (HTL) (as in Fig. 3), SCAPS-1D was adopted. As additional experimental device fabrication and advanced characterization (i.e., accurate FWHM measurement from XRD, calibration of instrumental broadening, XPS, TRPL) are not achievable at this time, the simulation input parameters were selected from reported representative values in the literature and adjusted, where permissible, for consistency in comparison with the film-level measurements provided in Sect. 4. Where uncertainties exist, sensitivity sweeps were performed to ensure reported trends are robust to reasonable parameter variation. The principal parameter sets used for the simulations are summarized below in Table 4; the ranges indicate that the parameters were modified according to the sensitivity sweep windows to test the robustness of the trends^65,66,67,68.
Tables 5 and 6 summarize the PCEs of the studied structures. The optimal Mg concentration of 10% yielded the highest PCE of 22.18%, confirming the effectiveness of Mg doping in improving charge transport and reducing recombination losses. The effect of absorber layer thickness and temperature variations was also studied, showing that an optimal thickness of 0.8 μm and operation at 32 °C provided maximum efficiency.
Based on Table 5, the highest efficiency obtained was for 25 min of annealing. The variances of the efficiency may be due to changes in the material’s properties, including defect density, crystallinity, and grain size, which are affected by the annealing process. The results suggest that the ideal annealing period is 25 min, which correlates to the maximum PCE, showing that the annealing procedure substantially increased the ZnO film’s quality without introducing any negative impacts. The efficiency may also be affected by the thin film’s preparation, which led to some errors and imperfections in the film’s uniformity and quality. While the highest efficiency was seen at 1% magnesium doping concentration (Table 6), this could be due to a variety of factors that improve the overall performance of the ZnO thin film. Magnesium doping can improve ZnO’s electrical and optical characteristics by reducing defect density while increasing carrier concentration and mobility⁶⁹. By doping with magnesium, these enhancements are predicted to result in more efficient charge transfer and carrier collection, resulting in higher power conversion efficiency (PCE). Mg atoms, when doped into the ZnO lattice, replace zinc atoms and introduce more free carriers, increasing the carrier concentration. This increased carrier concentration enhances the film’s conductivity, allowing for more effective charge separation and lowering recombination losses.
From Fig. 8(a), it can be seen that the I-V curves are almost identical for the samples annealed for different annealing times. This might suggest that the electrical behaviour of the pure ZnO is not quite affected by the variations of the annealing times. For C-V and C-f curves (Fig. 8b and c), the graphs are quite different compared to the other, where the capacitance value for the C-V curve is a bit higher and the C-f curve is a bit lower. These results may be slightly different due to the thin film preparation or some error during the characterization test, where the equipment measurements have some errors, which can lead to differences in the results. However, Mg doping resulted in a more uniform and defect-free crystalline structure, reducing trap states that would normally capture and recombine charge carriers. As a result, overall charge transport efficiency improves, resulting in better short-circuit current density and fill factor, both of which are necessary for high PCE (Fig. 8d, f). Figure 8e indicates that the optimal doping level stabilizes the capacitance, suggesting reduced trap states and increased carrier concentrations. Finally, Mg doping significantly improves the performance of the ZnO thin film. The maximum efficiency among the measured concentrations is 1% magnesium-doped ZnO, showing that this doping level optimizes the film’s electrical and structural properties. The enhanced carrier concentration, together with improved charge transport and lower recombination losses, results in higher power conversion efficiency, proving the favourable effect of magnesium doping on ZnO thin films for solar cell applications. The trend of recombination losses decreasing upon incorporation of Mg can be explained by energy-level tuning and decreased defect activity. Incorporating Mg²⁺ doping raises the conduction band of ZnO, improving band alignment with the Cs₂AgBiBr₆ absorber, thereby leading to reduced interfacial recombination (e.g., “Mg doping modifies the band alignment which leads to reducing the interface recombination and increasing the Voc”⁷⁰. In addition, Mg also introduces shallow donor states, which increase electronic conductivity and reduce recombination paths for trap states⁷¹. Together, these effects explain the lower simulated recombination rates observed in SCAPS and are consistent with previous reports of Mg: ZnO electron transport layers in perovskite and dye-sensitized solar cells⁷².
I-V, C-V, and C-f characteristics of ZnO (a–c) and Mg-doped ZnO (d–f) thin films, showing enhanced performance metrics and reduced capacitance fluctuations with optimized doping. Note: The SCAPS-1D results presented here are predictive and not directly compared with experimental device J–V curves, as device fabrication and full photovoltaic characterization were not part of the present study. Nevertheless, the simulated trends are consistent with known material properties and with reported Mg: ZnO ETL behavior in perovskite solar cells, e.g. Refs^50,73.
While device-level experimental verification was not part of this study, the SCAPS-1D simulation showed useful results that are in Line with known material properties and trends observed in similar systems. These simulations provide some predictive value for future experimental work. The maximum experimentally studied Mg doping concentration in this work was at 3 at%, whereas the simulations explored doping up to 10 at% to evaluate a theoretical bound. This helps to illustrate the potential limits of enhancement factors beyond what is currently practical in fabrication.
This study demonstrates that incorporating magnesium into ZnO thin films can enhance perovskite solar cell performance by improving optical and electrical characteristics. The magnesium dopant has successfully increased the efficiency of PSC by significantly enhancing various electrical and optical properties. The addition of magnesium dopants, in particular, has resulted in significant improvements in critical parameters such as short-circuit current density (J_sc), open-circuit voltage (V_oc), and Fill Factor (FF). The optical properties of the perovskite layer have been positively influenced by magnesium doping, leading to enhanced light absorption and improved utilization of incident sunlight, thereby contributing to the overall efficiency enhancement of the PSC.
Future work should aim to validate these findings experimentally and explore long-term operational stability, scalable processing techniques, and alternative dopants for further optimization. Additionally, optimizing perovskite compositions and exploring scalable fabrication methods, such as slot-die coating, will be pursued. Environmental impact assessments and lifecycle analyses will ensure sustainability, while integration with real-world photovoltaic systems will validate practical applications. Advanced characterization techniques like time-resolved photoluminescence and computational modeling will provide deeper insights into charge dynamics and device performance. Investigating alternative doping elements and comparing their effects with magnesium doping will also be explored to identify potential improvements.
The datasets used and/or analysed during the current study available from the corresponding author on reasonable request.
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This work was supported by the Malaysian Ministry of Higher Education through FRGS grant FRGS/1/2020/TK0/UM/02/33, and HICoE grant no. JPT. S (BPKI)2000/016/018/015JId.4 (21)/2022003HICOE. The authors express their gratitude to Princess Nourah bint Abdulrahman University Researchers Supporting Project (Grant No. PNURSP2025R12), Princess Nourah bint Abdulrahman University, Riyadh, Saudi Arabia.
The authors express their gratitude to Princess Nourah bint Abdulrahman University Researchers Supporting Project (Grant No. PNURSP2025R12), Princess Nourah bint Abdulrahman University, Riyadh, Saudi Arabia.
Institute of Sustainable Energy, Universiti Tenaga Nasional (UNITEN), Jalan Ikram- Uniten, Kajang, 43000, Selangor, Malaysia
Mohammad Nur-E-Alam, Boon Kar Yap & Tiong Seih Kiong
Department of Electrical and Electronic Engineering, College of Engineering, Universiti Tenaga Nasional, Jalan IKRAM-UNITEN, Kajang, 43000, Selangor, Malaysia
Boon Kar Yap & Tiong Seih Kiong
Department of Electrical Engineering, Faculty of Engineering, Universiti Malaya, Jalan Universiti, Kuala Lumpur, 50603, Malaysia
Mohammad Aminul Islam
Miyan Research Institute, International University of Business Agriculture and Technology (IUBAT), Dhaka, 1230, Bangladesh
Mohammad Aminul Islam
Centre of Printable Electronics, Institute for Advanced Studies, Universiti Malaya, Kuala Lumpur, 50603, Malaysia
Mohammad Aminul Islam
Department of Mechanical Engineering, Faculty of Engineering, Universiti Malaya, Jalan Universiti, Kuala Lumpur, 50603, Malaysia
Tan Chou Yong
Faculty of Artificial Intelligence and Engineering, Multimedia University, Persiaran Multimedia, Cyberjaya, 63100, Selangor, Malaysia
Kah-Yoong Chan
Centre for Advanced Devices and Systems, Centre of Excellence for Robotics and Sensing Technologies, Multimedia University, Persiaran Multimedia, Cyberjaya, 63100, Selangor, Malaysia
Kah-Yoong Chan & Gregory Soon How Thien
Institute of Electronics, Atomic Energy Research Establishment, Bangladesh Atomic Energy Commission, Dhaka, 1349, Bangladesh
Mohammad Khairul Basher
Centre for Promotion of Research, Graphic Era (Deemed to be University), Clement Town, Dehradun, India
Mohammad Khairul Basher
Department of Physics, College of Science, Princess Nourah bint Abdulrahman University, P.O Box 84428, Riyadh, 11671, Saudi Arabia
Nissren Tamam
Faculty of Graduate Studies, Daffodil International University, Daffodil Smart City, Birulia, Savar, Dhaka, 1216, Bangladesh
Mayeen Uddin Khandaker
Applied Physics and Radiation Technologies Group, CCDCU, Faculty of Engineering and Technology, Sunway University, 47500 Bandar Sunway, Selangor, Malaysia
Mayeen Uddin Khandaker
Department of Physics, College of Science, Korea University, 145 Anam-ro, Seongbuk-gu, Seoul, 02841, Republic of Korea
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M.N-E-A.: Writing – review & editing, Writing – original draft, Visualization, Validation, Methodology, Investigation, Formal analysis, Data curation, Conceptualization. B.K.Y: Visualization, Validation, Supervision, Formal analysis, Data curation. M.K.B.: Writing – review & editing, Visualization, Methodology, Formal analysis. G.S.H.T.: Visualization, Validation, Formal analysis. K.-Y.C.: Visualization, Validation, Formal analysis. T.C.Y.: Visualization, Validation, Formal analysis. T.S.K.: Visualization, Supervision, Formal analysis. M.A.I.: Writing – review & editing, Visualization, Validation, Methodology, Investigation, Formal analysis, Data curation, Conceptualization. N.T. and M.U.K.: Writing – review & editing, Formal analysis, Data curation, Funding. All the authors have read and agreed to the published version of the manuscript.
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For at least a decade, developing countries across Asia and Africa have worried about growing dependent on China. They’re concerned about debt traps, coercive policies and hidden costs that might push their economies toward crisis.
Crisis has come and that logic has been turned on its head. After six weeks of the U.S. and Israel’s war on Iran and its ensuing counterattacks, it is the countries that bet on Chinese supply chains that are faring better than the ones that trusted Pax Americana.

Consider Pakistan. By now it should have been in the middle of yet another economic and social implosion. It has always been vulnerable to energy price shocks, given that it imports almost all of its energy, much of it through the Strait of Hormuz. The country has $130 billion in external debt and a persistent current account deficit, and so the slightest nudge should have tipped it over into a familiar spiral: Emergency requests to the International Monetary Fund, 18-hour power blackouts, unrest on the streets.
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The 166 MWp solar and 80 MWh battery storage project in Visayas aims to boost grid stability and support the Philippines’ renewable energy targets.
April 11, 2026. By News Bureau
Levanta Renewables, a renewable energy platform backed by Actis — has announced the award and signing of an Engineering, Procurement and Construction (EPC) contract with China Energy Engineering Group (CEEC) for the Barotac Solar Power and Battery Energy Storage System (BESS) project in the Visayas, Philippines.
The contract covers the full EPC scope for a 166 MWp solar photovoltaic (PV) facility integrated with an 80 MWh BESS, designed to enhance grid stability and support reliable power supply in the region.
Pramod Singh, CEO of Levanta Renewables, said, “This award marks an important step in advancing our greenfield portfolio in the Philippines, reflecting Levanta’s end-to-end capabilities across development, financing, construction and operations. By combining Levanta’s development expertise with CEEC’s EPC capabilities, we are well positioned to deliver the project to high standards of execution, reliability and safety.”
Guo Jizhong, Chairman of CEEC Anhui Electric Power Design Institute, Stated, “We are honoured to partner with Levanta Renewables on this important project. Leveraging our global EPC experience and commitment to quality and safety, we will ensure the successful delivery of this project to the highest standards.”
Kou Bin, General Manager of CEEC Northeast No. 2 Electric Power Construction, added, “We are greatly honoured to join hands with Levanta Renewables on this new energy project. We will fully leverage our professional strengths in overseas EPC services, uphold the highest standards of safety and quality, and work closely with all partners to ensure the project is delivered to the highest level of excellence.”
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Home » General » Business » Buyers criticise ‘poor quality’ China’s clean energy for creating costly ‘dependencies’
Posted By: Gopi April 11, 2026

New Delhi, April 11 (SocialNews.XYZ) China’s push to become a global supplier of renewable energy technology is drawing sharp criticism from Africa, South Asia and Latin America, alleging Chinese solar panels, wind turbines and batteries to be low‑quality and poorly suited to local conditions, a new report has said.
The report from Nepal Aaja also argued that these projects are also tied to financing that creates long‑term dependencies.
 
“China’s financing model typically ties loans to technology imports, meaning countries that accept Chinese funding are compelled to purchase Chinese equipment. Once locked into these supply chains, recipient nations find themselves dependent not only on Chinese hardware but also on Chinese spare parts, technicians, and after-sales services,” the Nepal-based media house said.
China’s RE exports gain strength from state-subsidized overcapacity, designed to absorb domestic surplus but they fail to meet the long-term needs of recipient nations. “The result is a wave of underscale technology—cheap upfront, but expensive in maintenance and replacement,” the report said.
Recipient nations of Chinese equipments in Africa and Southeast Asia have complained of frequent breakdowns, short lifespans with panels failing to withstand local climatic conditions, undermining electrification projects.
“Grid integration has proven inefficient, leading to costly repairs and delays in electrification projects. In Latin America, wind turbines imported from China have been criticized for their short lifespan compared to European alternatives,” the report noted.
China tries to position itself as the indispensable supplier of renewable technology, but the real aim is to lock the Global South into its orbit, creating asymmetric dependencies, with almost nil technology transfer.
“This dependency undermines their ability to hedge strategically in a multipolar world. Nations that might otherwise balance ties between China, the West, and regional powers are constrained by their reliance on Beijing’s energy ecosystem,” it said.
Leaders in Africa and Latin America called the relationship with China as a form of neo‑mercantilist exploitation in which energy ties are used to secure broader political concessions. China used the leverage to its advantage in UN voting alignment, Belt and Road expansion, and bilateral trade negotiations.
Source: IANS

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SECI Seeks ₹660 Crore Loan For 200 MW Solar Project In Madhya Pradesh  SolarQuarter
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Uttarakhand Electricity Regulatory Commission (UERC), the Indian state power regulator, has issued a draft FY 2026-27 review order dated April 07, 2026, and has invited stakeholder comments by 04.05.2026. For PV projects to be commissioned on or after 01.04.2026, UERC has proposed benchmark capital cost of INR 285.32 lakh/MW (~$313,852/MW) and generic tariff of INR 3.96/kWh (~$0.044/kWh). The proposal has been based on module price of $0.081 /Watt, annual degradation of 0.50%, applicable GST, custom duty, and CPI and WPI-linked escalation. The PV cost breakup has included INR 92.17 lakh/MW (~$101,387/MW) for PV modules, INR 40 lakh/MW (~$44,000/MW) for land, and INR 153.15 lakh/MW (~$168,465/MW) for civil works and related components. The draft has also proposed Canal Bank PV at INR 300.00 lakh/MW (~$330,000/MW) and INR 4.09/kWh (~$0.045/kWh), Canal Top PV at INR 320 Lakh/MW (~$352,000/MW) and INR 4.26/kWh (~$0.047/kWh), Solar Thermal at INR 1200 Lakh/MW (~$1,320,000/MW) and INR 11.95/kWh (~$0.131/kWh), GRPV/GSPV at INR 2/kWh (~$0.022/kWh), and BESS at INR 160 Lakh/MW (~$176,000/MW) with INR 2,54,583/MW/Month (~$2,800/MW/Month).

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Renewable surge fuels multi-year boom to India’s power equipment industry: Report  ANI News
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Jupiter International and AMPIN Energy Transition commissioned an integrated solar cell and module manufacturing facility in Bhubaneswar, Odisha, through their joint venture, AMPIN Solar One.
1.3 GW Capacity to Boost Domestic Solar Production
The facility features an annual production capacity of 1.3 GW, positioning it as a significant addition to India’s solar manufacturing landscape. Moreover, the facility has been established under the Government of India’s Production-Linked Incentive (PLI) scheme, which aims to strengthen domestic manufacturing capabilities and reduce import dependence. The solar modules produced at the facility will not only support AMPIN’s in-house renewable energy projects but will also be supplied to third-party developers, thereby enhancing supply chain reliability across the sector.
Strengthening India’s Energy Transition Goals
The joint venture underscores a strategic move toward building a self-reliant and resilient solar manufacturing ecosystem in India. By combining Jupiter International’s manufacturing expertise with AMPIN’s project development capabilities, the partnership is expected to accelerate the deployment of high-quality solar solutions nationwide.
Leadership Perspective: Focus on Scale and Quality
Alok Garodia, Chairman and Managing Director of Jupiter International Ltd, emphasized, “The inauguration of the manufacturing facility of AMPIN Solar One Private Limited is a significant step toward building a stronger domestic manufacturing backbone for India’s energy transition. This platform brings together scale, manufacturing depth, and quality-focused execution to enable the reliable supply of high-performance cells and modules from within the country. We are proud to partner with AMPIN and the Government of Odisha in advancing clean energy ambitions.”
A Strategic Step Toward Clean Energy Leadership
As reported by pv-magazine-india.com, the commissioning of this facility reinforces India’s commitment to energy transition and local manufacturing. As demand for solar power continues to grow, such integrated facilities will play a crucial role in ensuring sustainable, scalable, and cost-effective renewable energy solutions across the country.

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Today, Anker Solix unveiled its brand-new Solarbank. The Anker Solix Solarbank Max AC is now available to pre-order directly from the manufacturer and comes with an early-bird discount off the recommended retail price (RRP) of €2,299. It is currently only available to pre-order in selected countries, such as Germany, the Netherlands and France. Pre-order customers can also save on the BP7000 expansion battery (MSRP €1,799) and benefit from additional incentives.
The official pre-sale begins on 26 May 2026. Unlike previous models, such as the current Solarbank 3 Pro, the new Solarbank Max AC from Anker Solix has no PV inputs or MPPTs. Instead, this new release is a plug-and-play home storage solution designed to retrofit existing solar systems. It enables the straightforward storage of surplus energy, which is becoming less lucrative due to falling feed-in tariffs. With the Solarbank Max AC, surplus electricity can be stored for later use rather than being fed into the grid for a pittance.
Disclaimer: Notebookcheck is not responsible for price changes carried out by retailers. The discounted price or deal mentioned in this item was available at the time of writing and may be subject to time restrictions and/or limited unit availability.
Boasting a capacity of 7 kWh, the Anker Solix Solarbank Max AC is the largest Solarbank to date. The storage capacity can optionally be expanded up to 42 kWh using BP7000 expansion batteries, with each battery adding an extra 7 kWh. The bidirectional inverter supports up to 3,500 W for rapid charging and discharging. Up to 800 W can be fed into the home network simply by plugging the Solarbank Max AC into a standard wall outlet. With professional installation via a Wieland socket, however, the full 3,500 W capacity can be utilised. A 3,680 W off-grid socket is also available for backup power during outages.
Power output to the home can be adjusted to match real-time consumption in seconds via a smart meter. It also supports dynamic electricity tariffs to further reduce energy costs. "Anker Intelligence", including the "Anker" voice assistant, is designed to intelligently plan usage. According to Anker Solix, integration with Home Assistant and other systems is possible thanks to standardised Open API and Modbus protocols.
Anker Solix

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Zambia has launched a Carbon Feed-In Premium (CFIP) call for solar PV projects with storage totaling up to 300 MW. The programme is backed by Norway under Article 6 cooperation and supported by the NACA Fund.Eligible projects must range between 30 MW and 100 MW AC and include at least 30 minutes of battery storage.Projects must connect to the national grid, with ZESCO acting as primary offtaker.Applicants must demonstrate financing gaps with IRR below a 12.5 % benchmark.Submissions are due by 31 May 2026, with project selection expected by end-June 2026.Selected projects will receive carbon premium payments over at least 10 years.

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LONGi, a Xi’an, China-based solar technology company, has won the iF DESIGN AWARD 2026 for its eHome BIPV solar roof tiles. The award was presented in the Product Design/Building Technology category, according to the company’s statement. LONGi said the residential PV roofing product was developed to combine electricity generation with roof integration for homeowners. The system features modular lines, dark matte finishes, and near-seamless joining craftsmanship, allowing it to function as part of the roof structure. According to LONGi, the product meets the highest Class A fire safety requirements and carries a 30-year product and performance warranty. The company also added that the system supports full-coverage deployment to improve energy density per unit area, including on smaller or structurally constrained villa roofs, while also enabling real-time monitoring of generation, storage, and consumption through its home energy management system.

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Saatvik wins Rs 108.75 cr solar module order  Manufacturing Today India
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The University of Hawaiʻi is investing $14 million in a solar and battery storage project at its University of Hawaiʻi–West Oʻahu campus, aiming to significantly expand its renewable energy footprint and move closer to systemwide net-zero targets.
The project will install solar panel canopies over existing parking lots, creating dual-use infrastructure that generates clean energy while providing shaded parking. Planning and design are underway, with construction expected to begin in August 2026.
Once completed, the photovoltaic system is projected to generate approximately 2.38 million kilowatt-hours annually, enough to power about 270 homes. The installation is expected to supply roughly 50% of the net-zero energy required for the West Oʻahu campus and play a key role in reducing reliance on imported fossil fuels.
The initiative also includes an industrial-scale battery storage system designed to enhance resilience. In the event of a power outage, the system will support critical campus operations, a crucial capability given Hawaiʻi’s isolated island grid.
The solar canopy project is part of a broader sustainability strategy across the UH system. A subsequent phase will focus on upgrading campus chillers with high-efficiency units and advanced control systems, scheduled for fiscal year 2027, as the university continues its push toward full net-zero energy.
All buildings at the West Oʻahu campus are LEED-certified and incorporate energy-efficient systems, including existing solar installations of approximately 100 kilowatts per building. The campus also utilizes rainwater catchment for irrigation and benefits from access to public transportation, including on-campus bus and rail services.
Funding for the project is being sourced through a combination of campus funds, state capital improvement program allocations, and federal tax incentives. Project management is being led by the UH Office of Project Delivery and the UH West Oʻahu Office of Planning and Design, with support from local partners Elite Pacific Construction and RevoluSun.
KEY QUOTE:
“The new PV system is designed to offset 100% of the campus cooling load, significantly reducing our dependence on imported fossil fuels while lowering greenhouse gas emissions. Producing clean energy while providing shade just makes sense, it’s the right thing to do, and it also strengthens our resilience as a community.”
Miles Topping, Director Of Energy Management, University Of Hawaiʻi System

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Investment-driven balance sheet for Novation Tech  Il Sole 24 ORE
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Varanasi, a district in Indian State Uttar Pradesh, has recorded 3,122 solar panel installations in March under the PM Surya Ghar: Muft Bijli Yojana. By the 2026 first quarter, the district’s cumulative solar panel installations had reached 35,069, placing Varanasi second in Uttar Pradesh. The figures were shared at a pre-event awareness programme for the Uttar Pradesh Energy Expo (UPEX) 2026, held at Vikas Bhawan in Varanasi recently. The programme was organised by the UP State Chapter of the PHD Chamber of Commerce and First View in collaboration with UP NEDA and SEVA, with support from KEI Industries Ltd. During the event, officials discussed solar sector opportunities, the existing policy framework, and scheme-led adoption by households, farmers, and industries under PM Surya Ghar and PM-KUSUM. UPEX 2026 is scheduled to be held in Lucknow from May 7 to 9, with more than 150 exhibitors and over 60 speakers expected.

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Clean the Sky – Clean Energy Joint Ventures  trendhunter.com
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Silicon Ranch defends Stockton solar project at Bay Minette meeting amid community concerns  Gulf Coast Media
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A major solar farm approved by the government on Wednesday, 8 April, is set to power thousands of homes, but concerns remain over its impact on agricultural land in Lincolnshire.
The Springwell Solar Farm is expected to become the UK’s largest power-generating solar development, with the capacity to supply electricity to more than 180,000 homes annually – about half of all households in Lincolnshire.
The project forms part of a wider expansion of renewable energy, marking the 25th nationally significant clean energy scheme approved since July 2024.
See also: Record 157 solar farms approved amid food security fears
While the government has highlighted solar power as one of the cheapest forms of energy and central to reducing reliance on volatile fossil fuel markets, the scheme has prompted concern over the loss and use of high-quality farmland.
North Kesteven District Council objected to the development, citing its impact on “best and most versatile” agricultural land, with close to half of the site falling into this classification.
The council also raised issues relating to landscape, biodiversity, and the long-term use of rural land.
Council leader Richard Wright said the authority supported renewable energy in principle, but maintained that developments must be appropriately located.
He said: “Those objections we did raise were mainly in respect of how the scheme impacted on best and most versatile agricultural land.”
He added that mitigation measures should be prioritised. “We would still ask that, through careful location of the panels and on-site infrastructure, this is kept to a minimum,  and also to consider battery technologies that have lower environmental impact and are demonstrably the safest,” he said.
The government has defended the project as part of a broader effort to strengthen domestic energy supply amid global instability, including conflicts affecting international fuel markets.
Energy minister Michael Shanks said: “Solar is one of the cheapest forms of power available and is how we get off the roller-coaster of international fossil fuel markets and secure our own energy independence.”
Opposition remains from some political figures, including Reform UK MP Richard Tice, who called the decision “disgraceful” and “appalling”.
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BAY MINETTE, Ala. (WALA) – The company behind a controversial solar farm in north Baldwin County says it’s committed to the project and moving forward.
Silicon Ranch executives spent nearly four hours with north Baldwin residents Wednesday night. Thursday, they traveled and reflected on what they’d heard. They said they hope residents heard them too.
“We’re buying the land. We’re under contract. We’ve issued notice to close. We have a contract with Alabama Power to deliver 260 megawatts by the end of 2028. The project was approved by the Public Service Commission and we have obligations that we have to honor,” said Matt Beasley, chief commercial officer at Silicon Ranch.
Public meeting draws large crowd
More than 180 people turned out for a protest and the public meeting that followed Wednesday. Dozens had questions ranging from land management during the construction process to buffer zones and wildlife corridors. Silicon Ranch president and co-founder Reagan Farr stayed to answer all of them.
One resident asked about the project’s purpose. Farr said the company sells power and renewable energy certificates to Alabama Power, which can use the renewable energy credits as it chooses.
Another resident asked about local jobs. Farr said once the array is built, it will function as an agricultural operation with shepherds and agrivoltaic technicians onsite, but in smaller numbers. Agrivoltaic technicians manage the land and vegetation around solar panels.
By the end of the meeting, one thing was clear. Silicon Ranch is committed to this project. Company officials said their timeline will keep them on track to avoid any injunctions or moratoriums.
“What we’re focused on right now is finalizing a design that applies the learnings and takeaways from our studies and reviews so that we know where we’re building and importantly, we know where we’re not and yes, we’re going to file the application when we are ready to be able to continue to stay on course,” Beasley said.
Not everyone left the meeting feeling reassured. One resident said they felt worse after the meeting. Another said they had understood the land purchase was not final, but learned it was a done deal.
The Baldwin County Commission passed a resolution Tuesday, approving a referendum to establish zoning in Planning District 3. That’s created a tighter timeline for Silicon Ranch to turn in applications for building permits. They’ll need to do that within the 90-day period the probate office has to hold the special election. Otherwise, a no vote could put the development on hold.
Copyright 2026 WALA. All rights reserved.

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Lemoore is investing $24 million in an infrastructure project to become a “smart city,” according to a press release. The project will be completed by Energy Systems Group, an engineering services company. The ribbon cutting is expected by July 2027, and some upgrades have already begun.
The project will increase the sustainability and resilience of multiple city facilities and systems while upgrading key equipment, saving the city an estimated $14.8 million. The city received $876,000 in grants and tax credits to offset the cost of the project.
A total of 12 total EV charging stations will be spread across three locations: the Recreation Center, Kings Lions Park, and Heritage Park, with hopes that this will bring more people into Lemoore to charge their cars.
Solar-paneled carports are coming to the Recreation Center and 40 G St., which will provide shade and electricity. More energy sources mean that these solar panels will reduce the city’s overall energy expenditures and dependence on utilities, according to the City. 
“If we modernize the infrastructure, it’s a hedge against rising energy costs, which are going up in California,” said Amelia Cottrell, senior business development manager at Energy Systems Group. California electricity rates were 80% higher than the national average in 2024, according to the Public Policy Institute of California.
By upgrading HVAC systems and installing LED lighting in multiple city buildings, the city will use less electricity, which also reduces costs.
“We’ve had many different crazy heatwaves, and having new HVAC really combats a really hot summer day when it might break,” said Cottrell, adding that the City is upgrading its systems to make them more resilient to climate change.
Energy Systems Group is also installing 7,401 Advanced Metering Infrastructure water meters, which increase efficiency by automatically reading how much water is being used across the city. Meters used to be manually read by city staff, but in the future, AMI meter readings will be uploaded into an online database for residents to track their water usage. This digitized water system provides the City with real-time data, which will help identify leaks.
“if there’s any problems, you know right away because every resident can log on to a dashboard and say, ‘How much water am I using? OK, do I have any leaks?’,” said Cottrell.
The wastewater system is also getting digitized into a control system that pulls information from plant equipment into one digital platform. That centralized monitoring helps the city make better, data-driven decisions. The wastewater system is also getting much-needed equipment upgrades to its variable frequency drives, aerators, and more, which in the long run will lead to less maintenance.
“These were at the end of their useful life, so they needed to be replaced. And we replaced them with more efficient measures,” said Cottrell. “We’re upgrading systems that might fail.”
The city’s IT system and wastewater treatment facility are getting backup generators.
“If the power goes out for any which reason, we make sure that critical services are being offered to the city residents,” said Cottrell. If, for example, there is a fire nearby and the power needs to be shut off, now with backup generators, key systems can continue operating.
Cottrell says that by digitizing city infrastructure, the city becomes more connected, giving city staff better visibility over key systems and helping them make better decisions.
“if something breaks, they can see it on the screen and react to it faster,” she said.
These digital systems also self-monitor and alert staff before problems occur. By upgrading equipment that might break and replacing it with more energy-efficient models, the City saves money.
“The City is thinking proactively and doing this in a smart way,” said Cottrell.
“There’s community benefits that may be not obvious in the beginning, but once this project is up and running, I think residents will start to see really an improvement of the quality of life,” said Cottrell.
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A ‘BUTTERFLY solar farm’ that was set to be introduced to Wrexham will no longer be going ahead.
RWE Renewables UK has confirmed that it has pulled out of plans which would have seen a 99.9MW Butterfly solar and battery storage project built adjacent to the A483, and between Johnstown to the West and Bangor on Dee in the East.
The project would have generated enough low cost, green electricity to power the equivalent of over 34,775 typical Welsh homes.
The designs for the Butterfly Solar Farm (also known as Glöyn Byw Solar Farm), had been developed by RWE Project Manager Robin Johnson – a wildlife conservationist and trained ecologist.
The design consisted of around 260 acres of panelled area, to be planted with a diverse grass mix and maintained by sheep grazing allowing the site ‘to considerably improve local biodiversity and opportunities for wildlife’.
But, in a letter shown to The Leader this week, Mr Johnson has now confirmed that the project has been scrapped.
The decision comes following a consultation period that was held last year.
In the letter, Mr Johnson says: “Following our informal and formal consultations held last year for the proposed Butterlfy/Glyn Byw solar farm on land between Johnstown to the west and Bangor-on-Dee to the east, RWE has taken the decision not to progress further with the proposed scheme.
Read more
Plan to turn Wrexham University fitness suite into office space
Plans to turn part of Wrexham care home into houses approved
Volunteers ‘heartbroken’ after reservoir drained following toad rescue effort
Lane closures planned on Wrexham road near A483 for two weeks
“Following detailed review of grid connection availability and overall project viability, it has been concluded that the site cannot be advanced at this time.”
He added: “While this outcome is regrettable, RWE would like to thank all stakeholders who have engaged constructively during the project’s early stages.
“Solar and co-located battery projects remain central to RWE’s UK renewables strategy, and we continue to invest in projects that can be delivered efficiently and make a meaningful contribution to national and local energy goals.”
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Global Renewable Energy Hits 49% Capacity In 2025 As Solar Leads Record Growth – RE Statistics 2026  SolarQuarter
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FS India Solar Ventures, a subsidiary of First Solar, has won Solar Energy Corporation of India’s auction to supply 260 MWp of domestically manufactured DCR solar PV modules for a project in Madhya Pradesh.
November 10, 2025. By Mrinmoy Dey

Solar to BESS: Reliability Begins with Advanced Sealants, Explains Manish Gupta, Fasto Adhesive

Anand Jain of Aerem Solutions on Scaling Solar, Storage, and Finance for Sustainable India

JIRE CEO Amit Kumar Mittal Explains Rising Role of Energy Storage and Green Hydrogen in India

Icon Solar Modules Are Engineered for India’s Harsh Conditions, Says Rajat Shrivastava

Mobile Charging and Energy Storage Will Drive India’s EV Adoption: Mobec’s Harry Bajaj

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Australian solar cell innovator SunDrive has been given another helping hand by the Australian Renewable Energy Agency (ARENA) to support the firm bringing its home-grown tech to market.
Provided under ARENA’s Advancing Renewables Program, SunDrive has been issued a $25.3 million grant to scale and commercialise its copper metallisation solar cell technology to take its research and development facility in South Sydney to a 300 MW commercial scale production capability.
The funding will support local development, deployment and refinement of production tools in addition to undertaking cost modelling to support commercialisation. Modules will be produced at SunDrive’s Kurnell facility for in-field testing and early market acceptance.
Calling it a major milestone for SunDrive and Australian solar innovation, the firm said:
“The first commercial demonstrator tool has been built, and customer demos are now underway, showing how Australian research can translate into real-world manufacturing capability.
This latest grant adds to previous funding from ARENA of $14 million to demonstrate SunDrive’s copper metallisation technology.
SunDrive uses a copper-based process to replace the silver used in solar cells, aiming to cut costs and improve efficiency while supporting ARENA’s Ultra Low-Cost Solar goal.
“Not only is copper more abundant and cheaper than silver, but SunDrive’s unique manufacturing process also results in higher cell and module efficiencies which could have huge benefits for global decarbonisation efforts,” said  ARENA CEO Darren Miller.
A  2023 University of New South Wales (UNSW) study suggested if silver continues to play such an important role solar manufacturing, it will use up to 98% of the world’s current silver reserves by 2050; particularly given the rise of ‘passivated contact’ solar technology that requires 2 to 3 times more silver says SunDrive.
According to ARENA, the solar manufacturing industry is currently using a third of global industrial silver.
In April 2021, SunDrive achieved 24.48% cell efficiency with its copper tech, making it the most efficient commercial-size solar cell ever created at the time. By September 2022, cell efficiency had increased to 26.41%. I wasn’t able to determine if there have been efficiency improvements since.
The ARENA-funded project will be in collaboration with China’s Suzhou Maxwell Technologies Co Ltd and Jiangsu Vistar Equipment Technology Co Ltd, two long established solar cell manufacturers. In May this year, SunDrive inked a Joint Development Agreement (JDA) with the pair to co-develop and distribute commercial-scale direct-copper plating tools to advance development and production of high-efficiency heterojunction (HJT) solar cells.
“By partnering with world-leading solar cell equipment manufacturers, Maxwell and Vistar, we’re now showing how our record-breaking tech, combined with SunDrive’s engineering innovation, can scale to industrial production, making solar more efficient with a more abundant and affordable material by replacing silver with copper,” said SunDrive.
It’s not the first time the firm has teamed up with Chinese solar heavyweights. In October last year, SunDrive announced it was leading an application for funding under the Albanese Government’s Solar Sunshot program in a joint venture with Trina Solar. SunDrive says the proposed facility in Sydney will create more than 300 skilled jobs and have an annual production capacity of 1.2 gigawatts.
There’s been no further news on this that I’m aware of, but ARENA is yet to earmark all funding from that round.
When we’ll see SunDrive solar panels finally available here in Australia still isn’t clear.
If you’re looking for Australian-made solar panels for your home’s rooftop right now, then the only show in town is Tindo Solar — and Tindo make good modules. The firm manufactures its panels in Adelaide with local and imported components — among the imported elements are the solar cells. But expect to pay a premium well above the prices of good-quality budget Chinese brands such as Trina.
If country of manufacture doesn’t play a major role in your purchasing decision, discover and what you need to know to pick a good solar panel brand.
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Michael caught the solar power bug after purchasing components to cobble together a small off-grid PV system in 2008. He’s been reporting on Australian and international solar energy news ever since.
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Plans to build a 26 GW solar, wind, and green hydrogen project in Western Australia’s Pilbara are set to accelerate with the federal government providing a $21 million funding injection to further advance the project.
Image: ICE
Intercontinental Energy (ICE) has secured a $21 million (USD 14.73 million) grant from the federal government to support the development of its Australian Renewable Energy Hub (AREH) project, that aims to combine 26 GW of renewables to produce 1.6 million tonnes of green hydrogen per year.
Perth-headquartered ICE said the Australian Renewable Energy Agency (ARENA) funds will support the next detailed phase of technical, economic and regulatory progress on the AREH, being developed in Western Australia’s Pilbara region.
The studies will focus on green hydrogen production at Boodarie near Port Hedland, and integration with industrial partners, as well as environmental, water and social licence considerations for the project which would underpin green iron efforts in the Pilbara by producing large volume and low-cost green hydrogen.
AREH Chief Executive Officer Neil Parker said the new funding, that comes after the project was granted Major Project Status by the federal government in 2024, would accelerate the hub’s development.
“This funding allows us to advance the rigorous engineering, design and commercial analysis needed to progress AREH and its ability to supply new industrial clusters in the Pilbara,” he said.
“It brings us closer to delivering large‑scale, low‑cost green hydrogen, supporting a Future Made in Australia agenda and positioning the Pilbara as a leading global centre for green iron manufacturing.”
The 26 GW project, previously known as the Asian Renewable Energy Hub, is proposed for a 6,500-square kilometre site about 250 km northeast of Port Hedland, and would service industries throughout the Pilbara such as mines and mineral processing.
At full capacity, AREH could produce up to 1.6 million tonnes of green hydrogen per annum. Hydrogen produced by the mega project, now wholly owned by ICE after oil and gas major BP pulled out of the project last year, is planned to be used for ammonia and green iron production.
Isaac Hinton, head of ICE’s Australian operations, said the project can help transform the Pilbara, enabling new industries and positioning the region as a global centre for green iron.
“For the Pilbara to remain a major source of jobs and growth for Australia in the decades ahead, it must evolve from exporting iron ore to producing green iron,” he said.
“As global customers increasingly demand affordable green iron, there is an incredible strategic opportunity for the Pilbara to combine its world-class renewable energy and iron ore resources to capture more of the value chain.”
ICE has previously indicated a final investment decision was expected in 2028 with first power anticipated in 2030.
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© Fraunhofer ISE / Foto: Dirk Mahler | Performing light-induced copper deposition on an inline electroplating system for the metallization of c-Si solar cells with a layer stack of nickel, copper, and silver.
Scientists at the Fraunhofer Institute for Solar Energy Systems ISE have succeeded in reducing the silver consumption of TOPCon solar cells to 1.1 milligrams per watt peak.
Currently, TOPCon solar cells require an average of 10 to 12 milligrams of silver per watt peak. To the reduction, they tested an electroplating-based inline metallization process on pilot systems developed by RENA Technologies GmbH. By combining ultrashort UV laser structuring with the electrochemical deposition of nickel, copper, and silver, the research team produced M10-sized TOPCon solar cells with an efficiency of 24 percent. Compared to PERC solar cells, TOPCon solar cells have higher silver consumption, hence solar cell manufacturers are under particular cost pressure to reduce it.
While silicon heterojunction and IBC solar cells are already successfully metallized with printed silver-copper or pure copper contacts, printed copper metallization for TOPCon solar cells is still in the testing phase. At the same time, this is currently the most widely produced cell type and the one with particularly high silver consumption. Electroplated copper contacts have the potential to almost completely replace the silver requirements of TOPCon solar cells. Nickel serves as a diffusion barrier against copper migration into the cell, copper handles the electrical conduction, and a minimal amount of silver remains as oxidation protection.
“So-called nickel/copper electroplating could be firmly established in the photovoltaic market within two to three years,” says Dr. Sven Kluska, group leader for electrochemical processes at Fraunhofer ISE. “It would offer many advantages for solar cell manufacturers, even if they have to integrate electroplating equipment into their production process as an initial investment.”
Working in a consortium with the equipment manufacturer RENA Technologies GmbH, the scientists demonstrated in the research projects “EURO” and “SHINE PV” that electroplating metallization is technically feasible and can be implemented on an industrial scale. They metallized several batches of M10 TOPCon solar cells on an inline electroplating system, achieving efficiencies of 24 percent. This corresponds to the efficiency of the reference solar cells, whose silver contacts were applied using the conventional screen-printing process. To verify compliance with low contact resistance and high fill factors, they demonstrated a fill factor of 82.1 ± 0.3 percent for a batch of 186 TOPCon solar cells. The solar modules manufactured with the solar cells demonstrated very good stability in degradation tests according to IEC61215.
“Metallization via electroplating could also lead to significantly less dependence on China than is currently the case with silver pastes for the screen-printing metallization commonly used today,” said Dr. Florian Clement, Head of the Metallization and Structuring Technologies Department at Fraunhofer ISE. “Equipment and chemicals for copper electroplating come from European and American manufacturers; there is a global market for raw copper, without a concentration on Chinese suppliers. At the same time, we at Fraunhofer ISE are working intensively to establish European, resilient supply chains for copper-based screen-printing metallization.”
In the screen-printing process as well, there is the option of replacing silver pastes with hybrid silver-copper or pure copper pastes. However, implementation on TOPCon solar cells is considerably more difficult compared to silicon heterojunction solar cells with a TCO layer (transparent conductive oxide layer), which acts as a copper diffusion barrier; this is why researchers worldwide are also further developing electroplating metallization for TOPCon solar cells.
Fraunhofer ISE 2026


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A research team in the United States has fabricated a type of solar cell using screen-printed copper contacts on its rear side, according to a report from pv magazine. The cells, which feature a silver front contact, underwent a laser-enhanced contact optimization process to reduce electrical resistance at the contact points.
The team utilized a specialized copper paste designed to inhibit copper diffusion. This paste can be screen-printed and fired in air and is compatible with commercial silver pastes. The cells were built on standard n-type wafers, with a boron-diffused emitter on the front and a full-area TOPCon stack on the rear. The silver front grid was fired at a high temperature, while the copper rear contact was fired at a lower temperature to prevent copper migration.
The laser optimization treatment was applied with varying electrical bias to improve performance. Analysis showed the treatment drastically lowered contact resistivity at the rear. Microstructural examination revealed that copper was confined to the intended poly-silicon layer, improving contact without degrading key electrical parameters.
Through systematic optimization of printing and firing conditions, the team found that a specific firing temperature range provided stable voltage and fill factor, with performance degrading at higher temperatures due to copper diffusion. Electroluminescence imaging confirmed improved contact quality at the optimal temperature.
When compared to reference cells using full silver contacts, the copper-contacted cells demonstrated comparable open-circuit voltage and pseudo fill factor, though with marginally lower short-circuit current and fill factor. The optimized copper cells achieved an efficiency of 24.3%, which was slightly below that of the silver-reference cells. Stability testing under thermal stress showed negligible performance change over an extended period.
The researchers concluded that the high-efficiency copper-contacted cells present a viable opportunity to replace more expensive silver contacts in production, as the required tools and processes are already industry-standard. The work was detailed in the journal Solar Energy Materials and Solar Cells by a team including academics from a U.S. Department of Energy national laboratory, the Georgia Institute of Technology, and a copper paste specialist firm.
Interactive table based on the Store Companies dataset for this report.
This report provides a comprehensive view of the solar cells and light-emitting diodes industry in the United States, tracking demand, supply, and trade flows across the national value chain. It explains how demand across key channels and end-use segments shapes consumption patterns, while also mapping the role of input availability, production efficiency, and regulatory standards on supply.
Beyond headline metrics, the study benchmarks prices, margins, and trade routes so you can see where value is created and how it moves between domestic suppliers and international partners. The analysis is designed to support strategic planning, market entry, portfolio prioritization, and risk management in the solar cells and light-emitting diodes landscape in the United States.
The report combines market sizing with trade intelligence and price analytics for the United States. It covers both historical performance and the forward outlook to 2035, allowing you to compare cycles, structural shifts, and policy impacts.
This report provides a consistent view of market size, trade balance, prices, and per-capita indicators for the United States. The profile highlights demand structure and trade position, enabling benchmarking against regional and global peers.
The analysis is built on a multi-source framework that combines official statistics, trade records, company disclosures, and expert validation. Data are standardized, reconciled, and cross-checked to ensure consistency across time series.
All data are normalized to a common product definition and mapped to a consistent set of codes. This ensures that comparisons across time are aligned and actionable.
The forecast horizon extends to 2035 and is based on a structured model that links solar cells and light-emitting diodes demand and supply to macroeconomic indicators, trade patterns, and sector-specific drivers. The model captures both cyclical and structural factors and reflects known policy and technology shifts in the United States.
Each projection is built from national historical patterns and the broader regional context, allowing the report to show where growth is concentrated and where risks are elevated.
Prices are analyzed in detail, including export and import unit values, regional spreads, and changes in trade costs. The report highlights how seasonality, freight rates, exchange rates, and supply disruptions influence pricing and margins.
Key producers, exporters, and distributors are profiled with a focus on their operational scale, geographic footprint, product mix, and market positioning. This helps identify competitive pressure points, partnership opportunities, and routes to differentiation.
This report is designed for manufacturers, distributors, importers, wholesalers, investors, and advisors who need a clear, data-driven picture of solar cells and light-emitting diodes dynamics in the United States.
The market size aggregates consumption and trade data, presented in both value and volume terms.
The projections combine historical trends with macroeconomic indicators, trade dynamics, and sector-specific drivers.
Yes, it includes export and import unit values, regional spreads, and a pricing outlook to 2035.
The report benchmarks market size, trade balance, prices, and per-capita indicators for the United States.
Yes, it highlights demand hotspots, trade routes, pricing trends, and competitive context.
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Concise View of Market Direction
Market Size, Growth and Scenario Framing
Commercial and Technical Scope
How the Market Splits Into Decision-Relevant Buckets
Where Demand Comes From and How It Behaves
Supply Footprint and Value Capture
Trade Flows and External Dependence
Price Formation and Revenue Logic
Who Wins and Why
How the Domestic Market Works
Commercial Entry and Scaling Priorities
Where the Best Expansion Logic Sits
Leading Players and Strategic Archetypes
How the Report Was Built
Major US solar manufacturer
Residential & commercial solar
Former Cree LED business
Spin-off from SunPower
Specialty & high-power LEDs
LED technology & solutions
Advanced photonics
Residential solar panels
CIGS solar technology
US & Canadian manufacturing
North American manufacturing
US-made solar panels
US operations of Korean parent
3D architecture LEDs
High-quality lighting
High-brightness microdisplays
Disinfection & purification
US crystalline silicon solar
Next-generation tandem cells
Tandem cell technology
Manufacturing equipment
Turnkey production lines
Distributor & assembler
Residential & commercial
Former Philips business
Specialty & horticultural
Military & commercial
Aluminum nitride substrates
Materials for UV LEDs
US division of Kyocera
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