Iberdrola completes panel install at Broadsound Solar Farm – Energy Source & Distribution

Iberdrola Australia has celebrated a major milestone at its Broadsound Solar Farm and Battery project, with installation of all 609,522 solar panels.
The 376MW Broadsound Solar Farm and 180MW (2hr) co-located Battery Energy Storage System (BESS), located at Clarke Creek, about two hours north-west from Rockhampton, will generate enough electricity to power 145,000 homes.
Related article: Iberdrola begins construction on first project in Queensland
Across the site, more than 91,000 piles were driven and 7,006 trackers installed. Behind this has been a mechanical installation team of 110 people, with close to half identifying as First Nations.
Iberdrola Australia CEO and chairman Ross Rolfe AO said, “After providing energy to Australian customers, including Queensland commercial and industrial businesses, for many years we’re excited to soon be able to generate energy locally here with the Broadsound Solar Farm and BESS project.
“With more than 20 years experience working in Australian communities we’re looking forward to this big step into the Queensland market and adding to our 1.7GW of energy assets in operation across the country.
“It’s been great to work with the local community, the First Nations people, and in particular the Queensland Government and Isaac Regional Council to develop this project to deliver clean and affordable energy.”
Related article: Iberdrola Australia acquires 242MW Ararat Wind Farm
Powerlink recently completed the connection to Broadsound Solar Farm ahead of schedule, which means Iberdrola can commence testing before exporting to the National Electricity Market (NEM) once construction is complete.
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UK Residential Solar Market Size to Worth USD 3,612.4 Million by 2034 | With a 13.62% CAGR – openPR.com

UK Residential Solar Market Size to Worth USD 3,612.4 Million by 2034 | With a 13.62% CAGR  openPR.com
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SECI Floats Tender For 88 MW Solar PV Balance Of System Project In Karnataka – SolarQuarter

SECI Floats Tender For 88 MW Solar PV Balance Of System Project In Karnataka  SolarQuarter
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Constant solar and wind power is already competitive with fossil fuels – Table.Briefings

Some renewable energy plants capable of providing a reliable, continuous supply of electricity are already cheaper than gas- and coal-fired power plants. Over the next ten years, costs for hybrid projects that include storage will continue to fall.
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We are developing a new large-capacity photovoltaic plant in Ciudad Rodrigo, Salamanca – Iberdrola

We are developing a new large-capacity photovoltaic plant in Ciudad Rodrigo, Salamanca  Iberdrola
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UniCredit funds 37.2-MWp solar project at Italy’s Ravenna port – Renewables Now

UniCredit funds 37.2-MWp solar project at Italy’s Ravenna port  Renewables Now
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Moorhead to install solar panels at city buildings – InForum

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Jinbi Solar Farm – Gamuda Berhad

Western Australia, Australia
2026
DT Infrastructure has been appointed to deliver the Jinbi Solar Farm, a flagship 75MW project located on Yindjibarndi Ngurra (country) in Western Australia’s Pilbara region, approximately 56 kilometres south of Karratha.

Awarded by the Yindjibarndi Energy Corporation (YEC), which is one of Australia’s largest Indigenous-led renewable energy initiatives, Jinbi Solar Farm represents a crucial milestone in the decarbonisation of the Pilbara region and will feature 160,000 solar panels.

Mobilisation is scheduled to begin in Q2 2026, with the project completion expected to be early 2028. Once operational, the facility will supply sustainable and dependable renewable energy to support Rio Tinto’s regional power network and operations.

DT Infrastructure continues to establish itself as a leading delivery partner for Australia’s clean energy transition, focusing on large-scale infrastructure that paves the way for a sustainable future.

DT Infrastructure remains committed in expanding its renewable energy portfolio, spanning solar and wind projects nationally. Beyond the Jinbi Solar Farm, key projects delivered under the company include Marinus Link (Stage 1), a major undersea and underground electricity and data interconnector between Tasmania and Victoria; Carmody’s Hill Wind Farm; Goulburn River Solar Farm and Boulder Creek Wind Farm.
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BBDF 2026: financing, grid fees, flexibility and growth – pv magazine International

More than 530 delegates from across Europe’s fast-growing battery energy storage system (BESS) sector gathered in Frankfurt for the second annual Battery Business & Development Forum (BBDF), jointly organized by pv magazine and ESS News, Conexio-PSE, and SolarPower Europe. Engaging presentations, lively discussions and the chance to connect with industry leaders from across key markets made this year’s event a major success.




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Egypt installs 800 MW of solar in 2025 – pv magazine International

Latest analysis from GlobalData expects Egypt’s annual solar additions to reach above 2 GW over the next three years, increasing to above 3.5 GW from 2029 onwards. Cumulative capacity is expected to grow from around 2.9 GW at the end of 2025 to 34.3 GW by the end of 2035.
Image: Ali Othman/Unsplash
Egypt added around 800 MW of solar in 2025, according to figures published by GlobalData. The consultancy’s latest analysis says Egypt’s cumulative solar capacity increased from 2.1 GW by the end of 2024 to around 2.9 GW by the end of 2025.
GlobalData is expecting 2.2 GW of solar to be added this year, taking total capacity to 5.1 GW by the end of 2026, followed by a further 2.1 GW in both 2027 and 2028. Annual additions are anticipated to increase from then onwards, up to an estimated 3.5 GW in 2029, taking Egypt’s total solar capacity to 12.8 GW by the end of this decade.
Yearly additions between 3.5 GW and 3.7 GW are anticipated throughout the early 2030s, taking Egypt past 20 GW of solar during 2032 and over 30 GW of solar in 2034, ahead of reaching a forecasted 34.3 GW by the end of 2035.
Solar is expected to maintain its position as Egypt’s leading form of renewables throughout the study period, with the country’s total cumulative renewable capacity expected to reach approximately 49.7 GW by 2035, GlobalData’s analysis adds.
Image: GlobalData
Mohammed Ziauddin, Power Analyst at GlobalData, said solar is emerging as the dominant driver in Egypt’s power sector, supported by strong resource availability, improving project economics and sustained policy support. “Its scalability and cost competitiveness make it well suited to meet rising electricity demand, while complementary technologies continue to support system stability,” Ziauddin explained.
GlobalData’s analysis explains that Egypt’s solar expansion is underpinned by a comprehensive policy and investment framework. The consultancy says legislation opened the market to independent power producers, while tax reductions, reduced customs duties and access to land improved project viability and long-term power purchase agreements, sovereign guarantees and the expansion of build-own-operate models further strengthened investor confidence and accelerated project execution.
Egypt’s solar pipeline is dominated by utility-scale projects. Among major projects to begin construction last year was a 1 GW solar site tied to 600 MWh of storage belonging to Amea Power and a 1.1 GW solar plus 200 MWh storage project belonging to Scatec, whose entire portfolio in Egypt has been valued at $3.6 billion
Ziauddin told pv magazine that despite the dominance of utility-scale projects, Egypt’s smaller scale solar segments, and in particular the commercial and industrial (C&I market), are gradually gaining momentum.
“Over the forecast period, utility scale developments are expected to account for more than 60% of Egypt’s total solar market, while C&I projects are expected to comprise most of the remaining share,” Ziauddin added. “Together, utility scale and C&I solar are projected to represent nearly 98-99% of the country’s overall solar market.”
Ziauddin also explained that household level solar penetration remains limited in Egypt due to a combination of financial, structural, and behavioural barriers.
“Studies conducted at the household level in Cairo and Giza indicate that a significant proportion of households remain unwilling to adopt rooftop solar systems even when financing options are available, highlighting persistent affordability concerns and limited consumer confidence in the segment,” he said. “Households continue to rely heavily on conventional electricity and gas based energy sources, with solar accounting for only a marginal share of household energy usage. Residential deployment therefore remains concentrated primarily among higher income households, gated communities and premium residential developments.”
Ziauddin added that the stronger performing of the C&I segment relative to residential solar is driven by declining solar technology costs and a net metering framework that help to improve project viability, as well as ongoing electricity tariff reforms. He said that the government has progressively reduced electricity subsidies and implemented substantial tariff increases across C&I consumer categories over the past years.
In August 2024 alone, electricity tariffs for commercial users increased by approximately 23.5% to 46%, while residential tariffs rose by 14% to 40% across various consumption brackets,” Ziauddin told pv magazine. “These increases have significantly improved the economics of self generation, particularly for energy intensive industries seeking to reduce operating costs and improve long term price visibility. As grid electricity prices continue to rise, the payback period for onsite solar systems has become increasingly attractive for factories, manufacturing facilities, logistics centers, hotels, resorts, and large commercial buildings.”
Egypt is also working to develop its local solar manufacturing capabilities. In December, a groundbreaking ceremony took place for an integrated solar manufacturing complex set to feature three facilities targeting an annual manufacturing capacity of 2 GW of solar cells and 2 GW of solar modules.
Earlier this year, Egyptian company Kemet signed three agreements with Chinese companies, covering plans for a 5 GW solar cell complex, a 5 GWh battery energy storage factory and Egypt’s first solar inverter factory.
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Romania’s PV and storage development: A regional success story – Renewables Now

Romania’s PV and storage development: A regional success story  Renewables Now
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Oekoboiler Swiss AG Advances Photovoltaic Integration for Heat Pump Boiler Systems – The Newark Advocate

Hildisrieden, LU – November 29, 2025 – PRESSADVANTAGE –
Oekoboiler Swiss AG, a Swiss manufacturer specializing in energy-efficient heat pump boilers, continues to advance sustainable hot water solutions through enhanced integration capabilities with photovoltaic systems across Switzerland. The company’s dual-energy technology combines heat pump efficiency with solar power compatibility, addressing growing demand for carbon-reduced heating solutions in residential and commercial buildings.
The company’s systems utilize a combination of ambient air and electricity to generate hot water, achieving up to 80 percent energy reduction compared to traditional heating methods. By extracting approximately 75 percent of required energy from ambient air and combining it with 25 percent electrical input, the technology produces complete hot water solutions while significantly reducing carbon dioxide emissions.
Photovoltaic compatible Oekoboiler setup for sustainable homes in Switzerland
Oekoboiler Swiss AG designs and manufactures its products entirely in Switzerland, ensuring quality control throughout the development and production process. The systems feature smart control technology that enables seamless integration with existing photovoltaic installations, allowing property owners to utilize surplus solar energy for water heating purposes. This capability becomes particularly relevant as Switzerland continues its transition toward renewable energy sources and stricter building efficiency standards.
The heat pump boilers offer multiple configuration options, with storage capacities ranging from 150 to 450 liters to accommodate various building sizes and usage requirements. Each system operates independently from central heating installations, providing flexibility for both new construction projects and retrofitting existing buildings. The technology also provides additional benefits such as basement dehumidification, eliminating the need for separate moisture control equipment.
The company maintains a presence at https://oekoboiler-swiss-ag.localo.site for detailed product specifications and service information.
As Switzerland prepares for the implementation of EnEV 2025 energy efficiency regulations, Oekoboiler Swiss AG has positioned its products to meet and exceed upcoming standards. The company’s commitment to sustainable innovation extends beyond product development to include comprehensive planning, installation, and maintenance services throughout Switzerland.
The integration capabilities with photovoltaic systems represent a significant advancement in residential energy management. Property owners can program the systems to automatically utilize excess solar production during peak generation periods, optimizing energy consumption patterns and reducing reliance on grid electricity during high-demand periods.
Oekoboiler Swiss AG maintains its commitment to accessibility and customer engagement through multiple platforms. Additional information about the company’s sustainable hot water solutions can be found at https://pressadvantage.com/organization/oekoboiler-swiss-ag.

Based in Switzerland, Oekoboiler Swiss AG has established itself as a leading provider of energy-efficient water heating solutions since its founding. The company specializes in developing and manufacturing smart heat pump boilers that combine advanced technology with sustainable design principles. With a focus on quality, efficiency, and environmental responsibility, Oekoboiler Swiss AG serves residential and commercial clients throughout Switzerland. The company’s comprehensive approach includes consultation, system design, professional installation, and ongoing maintenance support. Customer location and service area information is available at https://maps.app.goo.gl/zBNNxGdCCBV7ZZ3C8.

###
For more information about Oekoboiler Swiss AG, contact the company here:
Oekoboiler Swiss AG
R. Heller
+41 41 511 21 77
info@oekoboiler.com
Mülacher 6
6024 Hildisrieden
Switzerland
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While countries compete for land for solar panels, Switzerland unrolls solar panels like a carpet between the tracks of an active railway. – CPG Click Petróleo e Gás

Science and Technology
Solar panels often compete with agriculture and natural ecosystems for the same scarce resource: land. The Swiss startup Sun-Ways found a solution by looking down at a train station: installing solar panels between railway tracks, taking advantage of an existing, already urbanized surface that serves no other purpose than supporting the sleepers. The first pilot project was inaugurated on April 24, 2025, in Buttes, a small village in western Switzerland, with 100 meters of solar panels installed on sleepers of an active railway line where trains normally circulate.
What differentiates Sun-Ways from similar projects in Germany, Italy, France, and Japan is that its system is removable. The solar panels can be mechanically installed and removed by a machine developed by the Swiss railway maintenance company Scheuchzer, which can place or remove nearly 1,000 square meters of modules in just a few hours. This rapid removal capability is essential to allow maintenance work on the tracks without compromising railway operations or damaging the solar equipment.
The installation in Buttes consists of 48 solar panels positioned on the railway sleepers, the rectangular wooden pieces that support the steel tracks. The modules can be placed manually or by Scheuchzer’s automated machine, which unrolls the panels as if they were a carpet laid out between the tracks.
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The process was designed to be fast enough to be carried out during scheduled maintenance intervals, without requiring long interruptions to railway traffic.
Although the solar panels are designed to remain in place while trains run over them, the ability to easily remove them is what makes their use on active railways viable. Tracks require regular maintenance, including sleeper replacement, gauge adjustment, and weld inspection. If the panels were fixed, each intervention would require complex and costly disassembly. With the removable system, the maintenance team removes the modules, performs the work on the tracks, and reinstalls the panels in a matter of hours. To keep the modules clean, a cylindrical brush can be attached to the end of operating trains.
The history of railway solar panels began in 2020, when Joseph Scuderi was waiting for a train at Renens station, west of Lausanne. Looking at the empty space between the tracks, he wondered why no one was doing anything with that idle surface. Five years later, the question transformed into a startup, an inaugurated pilot project, and formal interest from at least six countries in adopting the technology.

South Korea is one of the most advanced partners. Taebon Park, CEO of Korean Rail Solar Power Generation Project Company, personally participated in the inauguration in Buttes and intends to adapt the Sun-Ways system to South Korea’s approximately 6,600 km railway network. A pilot project is expected to start in the country later this year. Indonesia has also shown interest, with plans to start in the city of Bogor, West Java, and expand to the entire island. Japan, through its Ministry of Infrastructure and Transport, is following the project as part of its decarbonization goals by 2050.
The 100-meter pilot project in Buttes will produce up to 16,000 kWh of electricity per year, equivalent to the consumption of four to six households. Sun-Ways estimates that if solar panels were installed along Switzerland’s approximately 5,320 kilometers of railway network, excluding sections in tunnels or with low solar incidence, generation would reach 1 billion kWh per year. This volume corresponds to the consumption of 300,000 households, or about 2% of all electricity used in Switzerland.
For a country that needs to multiply its solar energy production sevenfold by 2035, every available surface counts. Switzerland, like most European countries, faces the dilemma of expanding renewable generation without consuming agricultural land or natural areas. The tracks offer a solution that does not compete with any other land use: the railway is already built, the surface between the tracks is not suitable for planting or housing, and the electrical infrastructure needed to inject energy into the grid often already exists near the railway lines.
Not everyone is convinced that installing solar panels between tracks is the best idea. Martin Heinrich, a researcher at the Fraunhofer Institute for Solar Energy Systems, Europe’s largest solar research institute, acknowledges that using tracks to generate energy is a great idea, but questions whether the removability of the modules is truly an advantage. According to Heinrich, photovoltaic modules should ideally be installed once and remain in place for the next 20 to 30 years. Each removal increases costs and raises the risk of equipment damage.
The Swiss transport authority also adopted a cautious stance. It authorized the test in Buttes because trains in the region operate at a maximum speed of 70 km/h, relatively low by railway standards. The testing phase was stipulated for at least three years, not six months as Sun-Ways had planned, so that the behavior of the tracks, the wear of the panels, and maintenance challenges can be evaluated in all seasons and under real, prolonged operating conditions.
Sun-Ways is not the only company exploring the idea of placing solar panels on railways, but it is the first to develop a removable system for operational lines. Projects in Germany, Italy, France, and Japan also test photovoltaic modules between tracks, but with fixed systems that require traffic interruption for maintenance. The difference with the Swiss model lies in the operational flexibility that quick removal provides, allowing the railway to continue functioning without restrictions while the panels generate energy.
Sun-Ways believes that solar panels could be installed on half of the world’s railway lines, an ambitious estimate that considers the exclusion of sections in tunnels, covered viaducts, and regions with low solar irradiation. In addition to South Korea, Indonesia, and Japan, the startup collaborates on projects in Spain and Romania and maintains exploratory talks with potential partners in China and the United States. The budget for the initial testing phase in Buttes was 585,000 Swiss francs, equivalent to approximately US$704,000.
The Buttes pilot project marks the beginning of a testing period that will define whether Joseph Scuderi’s idea at a train station can become a global standard. The solar panels between the tracks are already generating energy, trains continue to pass over them normally, and the Scheuchzer machine has already demonstrated that installing and removing almost 1,000 square meters of modules is a matter of hours. What remains to be proven is whether the system can withstand years of continuous operation, extreme climatic variations, and wear caused by daily railway traffic.
Do you think installing solar panels between train tracks is a viable solution for Brazil, which has thousands of kilometers of railways? Tell us in the comments what you think about the Sun-Ways idea, whether the quick removal of modules is a real advantage or a complication, and which country should adopt this technology first. We want to hear your opinion on solar energy in unexpected places.
I cover construction, mining, Brazilian mines, oil, and major railway and civil engineering projects. I also write daily about interesting facts and insights from the Brazilian market.
© 2026 Click Petróleo e Gás – All rights reserved

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Villarino photovoltaic plant: clean energy in Salamanca – Iberdrola

Villarino photovoltaic plant: clean energy in Salamanca  Iberdrola
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Silver Supply Can't Keep up With Solar Demand: Why Copper Substitution Could Make or Break the Industry – renewableenergymagazine.com

Silver, a critical input in solar panel manufacturing, is becoming harder to secure at the volumes the industry now requires. Unlike some supply hiccups, this one isn’t temporary. Instead, it’s a structural deficit where supply can’t keep up with demand — a deficit that’s been coming for a few years. Since mines produce it as a by-product, production can’t increase, which will affect solar farm installations and infrastructure unless a substitute metal can replace or reduce silver use in photovoltaic (PV) panels.
Solar power is booming, and the nonprofit Prometheus Institute says, “VDMA calculates PV module shipments in 2024 at 703 GW, with average prices having dropped by 33% compared to the end of 2023.” With an increasing demand for green power, silver production has struggled to keep up since 2021.
Researchers indicate that the shortage may result in a mining “supply that may meet only 62%-70% of demand.” Despite producing 1,090.4 million ounces in 2025, the deficit is still widening, as new PV cells require more of the precious metal than previous types.
The industry has seen a deficit for six years running, with the latest shortfall at 215 million ounces — the biggest gap yet. In industrial terms, the imbalance creates ripple effects, such as increasing pricing, sourcing challenges and production delays. Much of the demand comes from industrial use, such as solar panel production and the growing use of silver in e-vehicle battery manufacturing. This makes it a more affordable alternative crucial to the world’s sustained push toward green energy.
Every panel requires conductivity. Materials must efficiently carry electricity out of the cell, and silver still does that job better than anything else at scale. The Silver Institute says that “silver powder is turned into a paste, which is then loaded onto a silicon wafer,” with thin conductive lines printed onto cells. These lines collect and move electricity generated by sunlight.
As PV production scales, so does the need for that paste. The 2024 batch, equivalent to 703 GW, required a substantial amount of the precious metal. Depending on the type, a Tunnel Oxide Passivated Contact (TOPCon) uses 13 milligrams to 17 milligrams of silver per PV watt,  while Heterojunction (HJT) cells can need as much as 23 mg/W for increased output PV panels. An average panel contains about 20 grams of silver.
As mining the metal becomes more challenging, the industry has begun looking at alternatives, such as copper and aluminum. Copper is far more abundant and a primary product during mining, unlike silver, which is a by-product. It’s already widely used in PV systems for cables and connection points, with the average being 2 to 3 tons of copper per MW produced by utility-size PV farms.
Since it’s more abundant, copper is also cheaper and widely used in electrical systems. Longi, a major PV system producer, is already moving toward substituting silver in the second quarter of 2026 in an attempt to lower costs. Other PV giants are considering base metals, such as copper, as viable substitutes.
However, it’s not an easy swap, as copper has different properties. It oxidizes more readily and doesn’t conduct electricity quite as well. Additionally, research into a copper paste for PV applications remains limited. However, initial indications are that a combination of silver and copper applied to silicon matrices mayreduce silver use by up to 93% compared to traditional designs.
Copper may be applied via paste formulas or electroplating, depending on which method works best for front-of-panel and back-of-panel use. Cold days favor conductivity and reduce resistance in metals, which is why solar panels are more efficient in winter. This variable is consistent across conductive metals.
Manufacturers grapple with metal supply challenges for the cells themselves. However, PV farm owners must consider that the supporting infrastructure for mounting systems, tracking equipment and structural components relies heavily on steel processing companies to provide materials for solar farm construction.
According to Steel Technologies, “While metallization paste gets the headlines, utility-scale PV farms also depend on steel processors to supply torque tubes and tracking system components, creating opportunities for steel fabricators to support the installation of the industry’s 703 GW output array.” From an agricultural and land management perspective, material challenges extend beyond the panels themselves. It can shape how installations are built, maintained and scaled over time.
Additionally, PV panels have an average lifespan of about 25 years, which means the U.S. may have as much as 1 million tons of PV waste by 2030 and an estimated 10 million tons by 2050. The EPA also finds that “solar panel waste could be a hazardous waste” because it contains heavy metals that can harm the environment when they leak into the soil, creating further issues. This is why selecting a safe, suitable replacement for panel components is an important consideration.
Essentially, there are two paths. If silver remains unreliable and costs continue to rise, it can slow the deployment of utility-scale development and delay projects. This will change how PV technologies are integrated into broader energy and land-use strategies.
However, if copper substitution proves effective and scalable, it could unlock an entirely new trajectory. With lower material costs and reduced supply risks, faster manufacturing time frames may become a reality.
The challenge is getting from one material to the other without compromising quality or limiting lifespan along the way. This requires more testing, collaboration between manufacturers and a stronger focus on long-term performance over short-term output gains. The solar industry has evolved in leaps and bounds, and it’s now vital that pivotal players consider the full supply chain, not just the materials in each cell.
The solar industry isn’t slowing down. Demand for clean energy keeps rising, and land use is becoming more strategic across various PV farms and utility infrastructures. The only change is the constraints currently fueling dynamic growth as the industry moves from silver to alternatives. Manufacturers must evolve to keep up with the challenges.

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Morgan residents scrutinize solar farm proposed near Chapin – Jacksonville Journal-Courier

Peter Yannakakis (standing), president of Solar Generation MW, talks about a proposed solar panel farm that would be built west of Chapin. Morgan County Board of Commissioners agreed to a memorandum of understanding with a subsidiary of the company during its meeting Monday.
A solar farm development planned for west of Chapin was the subject Monday of much discussion and criticism during a Morgan County Board of Commissioners meeting.
The board unanimously agreed during its meeting to a memorandum of understanding between itself and SG Chapin PV, a subsidiary of St. Louis-based solar company Solar Generation MW. The company wants to build a solar panel farm on 24 acres of land west of Chapin.
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Solar Generation MW President Peter Yannakakis spoke about the project during the meeting. The solar panel farm would generate 4.59 megawatts of energy at peak output for a "community solar project" that would provide renewable energy to customers unable to put solar panels on their property, he said. The electricity would be sold to Ameren Illinois; customers who subscribe to the project would receive a 10% discount on their electricity bills, he said.
"It's kind of a win-win for all," Yannakakis said.
The farm would be built along Neelyville Road and Grants Lane, Yannakakis said. No vegetative screening would be put up to conceal the solar panels from view because there are no neighbors near its proposed construction site, he said. Construction would take from six to 12 months to complete and the company has taken out a 25-year lease on the land, he said.
Yannakakis fielded numerous questions during the meeting from both the board and county residents, some of whom were skeptical about what the company was putting forth. The farm is not part of Ameren's efforts to create large-load projects around the country, nor is the company working with any closed-loop data center programs, he said.
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Solar Generation MW will issue a $300,000 bond to deconstruct the farm at the end of its lease and return the land to "the state it's in right now," Yannakakis said.
Some residents said that amount of money will  not be enough to undo whatever damage construction of the farm could cause.
"How's $300,000 going to … replace the nutrients that are lost?" county resident Kristy Clegg asked. "You're going to kill that ground. That ground is not going to be viable ground ever again."
Commissioner Michael Woods noted that the county can review the amount of money in the decommissioning bond 10 years after the solar panel farm goes online and every five years afterward.
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Some residents also took issue with the lack of a plan for vegetative screening around the site.
Resident Cody Smith said a screen would provide habitats for local fauna, such as deer and pollinators. Lucy Reid of Jacksonville asked whether the company would plant screening if someone chose to move near the proposed site within the next 25 years, noting that residents often drive past the area.
"You're not doing it today, but we have to live here for 25 years," Reid said.
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Board Chair Michael Wankel said the company is not required by the state to put up screening around the site; a county ordinance that would mandate it still is under review.
However, Yannakakis said he would talk with the county about adding screening to the site "with the plan of doing it."
Ben Singson became a reporter for the Journal-Courier in 2022, joining after graduating from the University of Missouri-Columbia. The Lindenhurst native previously reported for KBIA, an NPR affiliate radio station, in college.
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Egypt’s solar PV capacity set to surge to 34.3GW by 2035 – Green Building Africa

Egypt is accelerating the transformation of its power sector, with solar PV expected to become the country’s fastest growing source of electricity generation over the next decade.
According to GlobalData, Egypt’s solar PV capacity is forecast to increase from approximately 2.9GW in 2025 to around 34.3GW by 2035. The growth marks a significant shift for a market historically dominated by natural gas fired generation, particularly large combined cycle power plants.
The findings were published in the company’s latest report titled “Egypt Power Market Trends and Analysis by Capacity, Generation, Transmission, Distribution, Regulations, Key Players and Forecast to 2035”.
Egypt’s cumulative renewable power capacity is expected to reach nearly 49.7GW by 2035, with solar PV accounting for the majority of new additions. The expansion reflects the country’s strong focus on utility scale renewable deployment, supported by high solar irradiation levels and an expanding pipeline of large projects.

The growth of the solar sector has been supported by a broad policy and investment framework introduced over recent years. Regulatory reforms, including the Renewable Energy Law and Electricity Law, opened the market to independent power producers and created a more attractive investment environment.
Government incentives such as tax reductions, lower customs duties, and improved land access have strengthened project economics. Long term power purchase agreements, sovereign guarantees, and wider adoption of build own operate models have also increased investor confidence and accelerated project development.
Egypt has further strengthened renewable deployment through initiatives such as the Nexus of Water, Food and Energy platform, which has mobilised international financing for large scale projects. Fast track approval mechanisms, including the Golden License, have reduced regulatory timelines and improved project execution.
Battery energy storage is also becoming increasingly integrated into new solar developments, helping improve grid stability and manage peak electricity demand more effectively.
Mohammed Ziauddin said solar PV is emerging as the dominant growth driver in Egypt’s power sector due to strong resource availability, improving project economics, and sustained policy support.
He noted that the scalability and cost competitiveness of solar technology make it well positioned to meet rising electricity demand while complementary technologies continue to support grid reliability.
Alongside solar, Egypt’s wind energy sector is also expected to record steady growth. Wind power capacity is projected to increase from approximately 3GW in 2025 to around 15.1GW by 2035, supported by strong wind resources in the Gulf of Suez and Red Sea regions.
Despite the rapid growth of renewables, thermal power will continue to play a central role in Egypt’s electricity system. Natural gas fired generation capacity is expected to remain broadly stable at between 45GW and 50GW through 2035, maintaining its role in providing baseload and flexible power generation.
Nuclear energy is also expected to become part of Egypt’s future energy mix through the El Dabaa Nuclear Power Plant, which is projected to contribute around 4.4GW of capacity by 2035.
Ziauddin said Egypt’s long term strategy positions solar energy not only as a solution for domestic electricity demand, but also as a key enabler for green hydrogen production and cross border electricity trade.
He added that the combination of large scale solar deployment, continued natural gas generation, and the introduction of nuclear power is expected to support a more diversified and resilient electricity system while strengthening Egypt’s long term energy security and export potential.
Author: Bryan Groenendaal






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Iberdrola reaches 5 million MWh of electricity sold in Italy – Enlit World

Iberdrola reaches 5 million MWh of electricity sold in Italy  Enlit World
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Environment Report: Plug-In Solar or Have My Power Cut? – Voice of San Diego

Voice of San Diego
Investigative journalism for a better San Diego
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To collect free energy from the sun, and lower my bills, I thought all I had to do was plug a solar panel into my apartment wall. 
I was so wrong. 

Doing so could put me at risk of having my electric services disconnected, the California Public Utilities Commission told me. That’s apparently true even though the panel I have could only generate enough power to charge my laptop if I’m lucky.  
Laws allowing renters to plug cheap solar panels into a regular outlet at home are starting to catch-on across the country in at least 20 states tracked by Canary Media.  
Supporters say renters should be able to access affordable solar and shave dollars off their energy bill with these systems. Opponents, including many investor-owned utilities, say these are energy systems they don’t control and could put electrical workers at risk by adding power to the grid during an outage that a utility can’t immediately detect.  
However, Colorado just enshrined the right to get these into law this month. So has Utah and Maine. Virginia, Maryland and Connecticut are hot on their heels.
California? We’ll see. On Thursday, the state Senate Appropriations Committee will determine the fate of a plug-in solar bill by State Sen. Scott Wiener.  
“Until SB 868 is signed into law … technically plug-in solar falls under Rule 21 which utilities enforce at their own discretion,” wrote Cora Stryker, cofounder of Bright Saver, a nonprofit organization formed last year to sell plug-in solar kits and help push legislation like this across the country. 
Ok, before I get into Rule 21, let me set the scene: After writing about Wiener’s bill back in March, I wanted to test balcony solar at my own place and see much I could shave off my energy bill. Bright Saver lent me a 180-watt panel, which is a much smaller system than what Wiener’s bill would allow (up to 1,200 watts – enough to power a window A/C unit).   
But before I tested it, I wanted to know whether plugging in my panel (which needs just a regular outlet to send power back into the wiring of my apartment and toward appliances that need it – like the refrigerator or microwave) was technically illegal. I had heard that people in northern California were trying out balcony solar and were told to stand down by Pacific Gas and Electric, the investor-owned utility managing the grid there.  
Wiener, during his bill’s hearing before the Senate Energy and Utilities Committee, said residents were being forced to apply for grid interconnection – a ridiculously long application process people with rooftop solar typically have their solar companies do for them.  
So I emailed the California Public Utilities Commission and asked.  
“Plug-in solar is subject to the requirements for interconnection under Rule 21, which ensures safety and reliability of the grid,” wrote Terrie Prosper, a spokesperson for the Public Utilities Commission. 
Rule 21 regulates privately owned energy-generating resources like solar panels, batteries.  
 “It requires application to the utility, payment of appropriate fees, obtaining necessary permits from local jurisdictions, and waiting for the utility’s Permission to Operate before physically connecting for safety and reliability,” Prosper wrote. 
Damn. I was afraid of that. Sounds like a really complicated and time-consuming process just to be able to, maybe, shave a few bucks off my energy bill.  
But then I thought, what are they going to do if I don’t follow Rule 21? Throw me into Rule 21 jail?  
Prosper said my utility company could disconnect my power.  
“Connecting plug-in solar to the grid without the necessary permitting and Rule 21 application can result in a customer being disconnected for safety and/or code violations, in addition to any other actions by the local jurisdiction,” Prosper wrote. 
That’s a pretty big risk.  
I also asked San Diego Gas and Electric if they’d cut my power. Spokesman Anthony Wagner reiterated the systems fall under Rule 21.  
“Unapproved connections can create dangerous backfeed conditions that put utility workers, first responders and the public at risk,” he wrote.  
So, I didn’t plug in my panel. It’s still sitting in a huge box against my wall, mocking me.  
We’ll see what Thursday brings. But if California doesn’t move plug-in solar forward this year, stay tuned for part two of my quest where I embark on what looks to be an incredibly and prohibitively complex process of applying for grid interconnection! 
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A biweekly deluge of environmental drama.
Environment Report Newsletter
I cover the deluge of environmental drama in San Diego County including, but not limited to, energy and water affordability, the Colorado River and the cross-border sewage crisis on the Tijuana River.
San Diego fact about me: I placed third in the San Diego Library Shop’s 2019 Matchbook Story Contest.
Email: mackenzie.elmer@voiceofsandiego.org
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Solar energy to power wastewater plant – Waipa District Council

Solar energy to power wastewater plant  Waipa District Council
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Maine’s Community Solar Boom Is Going Bust – The Energy Mix

Maine’s Community Solar Boom Is Going Bust

This story was originally published by Canary Media.

For years, community solar in Maine grew at a breakneck pace, elevating the state to the top of the list for most capacity per capita in the United States. Now, however, development has slowed to a standstill, and the industry faces an uncertain future.

“What we saw was a very swift rise, and it has now come to an end,” said Eliza Donoghue, executive director of the Maine Renewable Energy Association. ​“Right now, there is no opportunity for growth.”

Community solar—larger arrays that sell power to multiple users—took off in Maine after the state expanded the program supporting it in 2019. By the end of 2025, Maine had 694 watts of community solar capacity per person, far and away the most of any state in the country (second-place Minnesota had 164 watts per capita), according to a recently released report from the Institute for Local Self-Reliance.

Then, last year, lawmakers passed, and the governor signed, a law that brought that momentum to a screeching halt. The legislation includes two major stumbling blocks for the future success of community solar in the state, whose legislature and governor’s office are controlled by Democrats

First, it prohibits any larger new projects—residential solar is still OK—from enrolling in net energy billing, the system that allows solar producers to get paid for the energy they send to the grid. It is the backbone of community solar’s financial model.

Second, the law imposes hefty new fees on community solar installations that are already up and running. It’s a move that creates financial hardship for existing projects and makes developers exceedingly wary about doing business in Maine, said Jessica Robertson, director of policy and business development for New England at renewable energy company New Leaf Energy.

“That’s just incredibly damaging,” she said. ​“If you can have an operating project that was built in good faith under the existing laws and policies, and you can have the rug pulled out from you later, it’s impossible to have confidence.”

At a moment when energy affordability is a top priority for consumers and elected officials, many states are looking for ways to create immediate savings for struggling residents. Renewable energy and energy-efficiency programs are finding themselves on the chopping block even in left-leaning states that have traditionally supported such efforts.

Community solar has long been seen as a way to save participants money and allow environmentally conscious residents to buy clean energy without having solar on their own property. However, as such programs have become more common, there has been a rising chorus of complaints that net energy billing—often called net metering—increases costs for consumers at large, who have to absorb the expense of expanding and maintaining the grid. In Maine, for example, net energy billing added roughly $7 to the average customer’s monthly bill in 2024, according to the state’s major utilities.

Net metering battles have also erupted in California, New Hampshire, North Carolina, and other states. In Maine, during debate on the 2025 bill, one state lawmaker called net energy billing a ​“job-stealing solar energy tax,” while another branded it ​“a nefarious scheme.”

The result is a law that environmental advocates and solar industry representatives say goes too far in an attempt to save a few dollars. The abrupt end to net energy billing for community solar left pending projects in the lurch. For some, it became too expensive to wait for new rules, especially given the looming end of the federal tax credits.

“We were waiting around. Now, we’ve canceled all those projects,” Robertson said. ​“And we’re not the only ones. I highly doubt anyone has been able to hold on.”

The law calls for the creation of a successor program to support the development of distributed energy resources, most notably solar and storage. The state’s Department of Energy Resources has started the process and expects to launch opportunities for stakeholder feedback in the coming months, said acting Commissioner Celina Cunningham.

Developers, however, are not optimistic that the upcoming program will undo the changes made by the new law.

“I am not super hopeful about community solar,” said Lindsay Bourgoine, director of policy and government affairs at ReVision Energy. ​“That was a pretty strong signal from the legislature to close that market.”

Provisions encouraging development of storage could be a bright spot, said some in the industry. Maine has more than 1.9 gigawatts of solar capacity today, up from less than 100 megawatts in 2019. An incentive program encouraging the construction of batteries to store some of the power produced could create significant market opportunities for developers unable or unwilling to pursue stand-alone solar projects in the state.

“We will see what that says,” said Kate Daniel, northeast regional director for the trade association Coalition for Community Solar Access. ​“But I do know that at least our members are not very likely to pursue new development in Maine, mostly because they view it as a very risky business climate.” 

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Maine’s Community Solar Boom Is Going Bust

This story was originally published by Canary Media.

For years, community solar in Maine grew at a breakneck pace, elevating the state to the top of the list for most capacity per capita in the United States. Now, however, development has slowed to a standstill, and the industry faces an uncertain future.

“What we saw was a very swift rise, and it has now come to an end,” said Eliza Donoghue, executive director of the Maine Renewable Energy Association. ​“Right now, there is no opportunity for growth.”

Community solar—larger arrays that sell power to multiple users—took off in Maine after the state expanded the program supporting it in 2019. By the end of 2025, Maine had 694 watts of community solar capacity per person, far and away the most of any state in the country (second-place Minnesota had 164 watts per capita), according to a recently released report from the Institute for Local Self-Reliance.

Then, last year, lawmakers passed, and the governor signed, a law that brought that momentum to a screeching halt. The legislation includes two major stumbling blocks for the future success of community solar in the state, whose legislature and governor’s office are controlled by Democrats

First, it prohibits any larger new projects—residential solar is still OK—from enrolling in net energy billing, the system that allows solar producers to get paid for the energy they send to the grid. It is the backbone of community solar’s financial model.

Second, the law imposes hefty new fees on community solar installations that are already up and running. It’s a move that creates financial hardship for existing projects and makes developers exceedingly wary about doing business in Maine, said Jessica Robertson, director of policy and business development for New England at renewable energy company New Leaf Energy.

“That’s just incredibly damaging,” she said. ​“If you can have an operating project that was built in good faith under the existing laws and policies, and you can have the rug pulled out from you later, it’s impossible to have confidence.”

At a moment when energy affordability is a top priority for consumers and elected officials, many states are looking for ways to create immediate savings for struggling residents. Renewable energy and energy-efficiency programs are finding themselves on the chopping block even in left-leaning states that have traditionally supported such efforts.

Community solar has long been seen as a way to save participants money and allow environmentally conscious residents to buy clean energy without having solar on their own property. However, as such programs have become more common, there has been a rising chorus of complaints that net energy billing—often called net metering—increases costs for consumers at large, who have to absorb the expense of expanding and maintaining the grid. In Maine, for example, net energy billing added roughly $7 to the average customer’s monthly bill in 2024, according to the state’s major utilities.

Net metering battles have also erupted in California, New Hampshire, North Carolina, and other states. In Maine, during debate on the 2025 bill, one state lawmaker called net energy billing a ​“job-stealing solar energy tax,” while another branded it ​“a nefarious scheme.”

The result is a law that environmental advocates and solar industry representatives say goes too far in an attempt to save a few dollars. The abrupt end to net energy billing for community solar left pending projects in the lurch. For some, it became too expensive to wait for new rules, especially given the looming end of the federal tax credits.

“We were waiting around. Now, we’ve canceled all those projects,” Robertson said. ​“And we’re not the only ones. I highly doubt anyone has been able to hold on.”

The law calls for the creation of a successor program to support the development of distributed energy resources, most notably solar and storage. The state’s Department of Energy Resources has started the process and expects to launch opportunities for stakeholder feedback in the coming months, said acting Commissioner Celina Cunningham.

Developers, however, are not optimistic that the upcoming program will undo the changes made by the new law.

“I am not super hopeful about community solar,” said Lindsay Bourgoine, director of policy and government affairs at ReVision Energy. ​“That was a pretty strong signal from the legislature to close that market.”

Provisions encouraging development of storage could be a bright spot, said some in the industry. Maine has more than 1.9 gigawatts of solar capacity today, up from less than 100 megawatts in 2019. An incentive program encouraging the construction of batteries to store some of the power produced could create significant market opportunities for developers unable or unwilling to pursue stand-alone solar projects in the state.

“We will see what that says,” said Kate Daniel, northeast regional director for the trade association Coalition for Community Solar Access. ​“But I do know that at least our members are not very likely to pursue new development in Maine, mostly because they view it as a very risky business climate.” 

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Green Energy Futures/Flickr
This story was originally published by Canary Media.
For years, community solar in Maine grew at a breakneck pace, elevating the state to the top of the list for most capacity per capita in the United States. Now, however, development has slowed to a standstill, and the industry faces an uncertain future.
“What we saw was a very swift rise, and it has now come to an end,” said Eliza Donoghue, executive director of the Maine Renewable Energy Association. ​“Right now, there is no opportunity for growth.”
Community solar—larger arrays that sell power to multiple users—took off in Maine after the state expanded the program supporting it in 2019. By the end of 2025, Maine had 694 watts of community solar capacity per person, far and away the most of any state in the country (second-place Minnesota had 164 watts per capita), according to a recently released report from the Institute for Local Self-Reliance.
Then, last year, lawmakers passed, and the governor signed, a law that brought that momentum to a screeching halt. The legislation includes two major stumbling blocks for the future success of community solar in the state, whose legislature and governor’s office are controlled by Democrats

First, it prohibits any larger new projects—residential solar is still OK—from enrolling in net energy billing, the system that allows solar producers to get paid for the energy they send to the grid. It is the backbone of community solar’s financial model.
Second, the law imposes hefty new fees on community solar installations that are already up and running. It’s a move that creates financial hardship for existing projects and makes developers exceedingly wary about doing business in Maine, said Jessica Robertson, director of policy and business development for New England at renewable energy company New Leaf Energy.
“That’s just incredibly damaging,” she said. ​“If you can have an operating project that was built in good faith under the existing laws and policies, and you can have the rug pulled out from you later, it’s impossible to have confidence.”
At a moment when energy affordability is a top priority for consumers and elected officials, many states are looking for ways to create immediate savings for struggling residents. Renewable energy and energy-efficiency programs are finding themselves on the chopping block even in left-leaning states that have traditionally supported such efforts.
Community solar has long been seen as a way to save participants money and allow environmentally conscious residents to buy clean energy without having solar on their own property. However, as such programs have become more common, there has been a rising chorus of complaints that net energy billing—often called net metering—increases costs for consumers at large, who have to absorb the expense of expanding and maintaining the grid. In Maine, for example, net energy billing added roughly $7 to the average customer’s monthly bill in 2024, according to the state’s major utilities.
Net metering battles have also erupted in California, New Hampshire, North Carolina, and other states. In Maine, during debate on the 2025 bill, one state lawmaker called net energy billing a ​“job-stealing solar energy tax,” while another branded it ​“a nefarious scheme.”
The result is a law that environmental advocates and solar industry representatives say goes too far in an attempt to save a few dollars. The abrupt end to net energy billing for community solar left pending projects in the lurch. For some, it became too expensive to wait for new rules, especially given the looming end of the federal tax credits.
“We were waiting around. Now, we’ve canceled all those projects,” Robertson said. ​“And we’re not the only ones. I highly doubt anyone has been able to hold on.”
The law calls for the creation of a successor program to support the development of distributed energy resources, most notably solar and storage. The state’s Department of Energy Resources has started the process and expects to launch opportunities for stakeholder feedback in the coming months, said acting Commissioner Celina Cunningham.
Developers, however, are not optimistic that the upcoming program will undo the changes made by the new law.
“I am not super hopeful about community solar,” said Lindsay Bourgoine, director of policy and government affairs at ReVision Energy. ​“That was a pretty strong signal from the legislature to close that market.”
Provisions encouraging development of storage could be a bright spot, said some in the industry. Maine has more than 1.9 gigawatts of solar capacity today, up from less than 100 megawatts in 2019. An incentive program encouraging the construction of batteries to store some of the power produced could create significant market opportunities for developers unable or unwilling to pursue stand-alone solar projects in the state.
“We will see what that says,” said Kate Daniel, northeast regional director for the trade association Coalition for Community Solar Access. ​“But I do know that at least our members are not very likely to pursue new development in Maine, mostly because they view it as a very risky business climate.” 

Your email address will not be published. Required fields are marked *



I agree to the Terms & Conditions and Privacy Policy.

Green Energy Futures/Flickr
This story was originally published by Canary Media.
For years, community solar in Maine grew at a breakneck pace, elevating the state to the top of the list for most capacity per capita in the United States. Now, however, development has slowed to a standstill, and the industry faces an uncertain future.
“What we saw was a very swift rise, and it has now come to an end,” said Eliza Donoghue, executive director of the Maine Renewable Energy Association. ​“Right now, there is no opportunity for growth.”
Community solar—larger arrays that sell power to multiple users—took off in Maine after the state expanded the program supporting it in 2019. By the end of 2025, Maine had 694 watts of community solar capacity per person, far and away the most of any state in the country (second-place Minnesota had 164 watts per capita), according to a recently released report from the Institute for Local Self-Reliance.
Then, last year, lawmakers passed, and the governor signed, a law that brought that momentum to a screeching halt. The legislation includes two major stumbling blocks for the future success of community solar in the state, whose legislature and governor’s office are controlled by Democrats

First, it prohibits any larger new projects—residential solar is still OK—from enrolling in net energy billing, the system that allows solar producers to get paid for the energy they send to the grid. It is the backbone of community solar’s financial model.
Second, the law imposes hefty new fees on community solar installations that are already up and running. It’s a move that creates financial hardship for existing projects and makes developers exceedingly wary about doing business in Maine, said Jessica Robertson, director of policy and business development for New England at renewable energy company New Leaf Energy.
“That’s just incredibly damaging,” she said. ​“If you can have an operating project that was built in good faith under the existing laws and policies, and you can have the rug pulled out from you later, it’s impossible to have confidence.”
At a moment when energy affordability is a top priority for consumers and elected officials, many states are looking for ways to create immediate savings for struggling residents. Renewable energy and energy-efficiency programs are finding themselves on the chopping block even in left-leaning states that have traditionally supported such efforts.
Community solar has long been seen as a way to save participants money and allow environmentally conscious residents to buy clean energy without having solar on their own property. However, as such programs have become more common, there has been a rising chorus of complaints that net energy billing—often called net metering—increases costs for consumers at large, who have to absorb the expense of expanding and maintaining the grid. In Maine, for example, net energy billing added roughly $7 to the average customer’s monthly bill in 2024, according to the state’s major utilities.
Net metering battles have also erupted in California, New Hampshire, North Carolina, and other states. In Maine, during debate on the 2025 bill, one state lawmaker called net energy billing a ​“job-stealing solar energy tax,” while another branded it ​“a nefarious scheme.”
The result is a law that environmental advocates and solar industry representatives say goes too far in an attempt to save a few dollars. The abrupt end to net energy billing for community solar left pending projects in the lurch. For some, it became too expensive to wait for new rules, especially given the looming end of the federal tax credits.
“We were waiting around. Now, we’ve canceled all those projects,” Robertson said. ​“And we’re not the only ones. I highly doubt anyone has been able to hold on.”
The law calls for the creation of a successor program to support the development of distributed energy resources, most notably solar and storage. The state’s Department of Energy Resources has started the process and expects to launch opportunities for stakeholder feedback in the coming months, said acting Commissioner Celina Cunningham.
Developers, however, are not optimistic that the upcoming program will undo the changes made by the new law.
“I am not super hopeful about community solar,” said Lindsay Bourgoine, director of policy and government affairs at ReVision Energy. ​“That was a pretty strong signal from the legislature to close that market.”
Provisions encouraging development of storage could be a bright spot, said some in the industry. Maine has more than 1.9 gigawatts of solar capacity today, up from less than 100 megawatts in 2019. An incentive program encouraging the construction of batteries to store some of the power produced could create significant market opportunities for developers unable or unwilling to pursue stand-alone solar projects in the state.
“We will see what that says,” said Kate Daniel, northeast regional director for the trade association Coalition for Community Solar Access. ​“But I do know that at least our members are not very likely to pursue new development in Maine, mostly because they view it as a very risky business climate.” 

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Voltalia commissions 26.9 MW across three solar parks in southern France – energynews.pro

Voltalia has commissioned three solar photovoltaic parks totaling 26.9 MW in the Bouches-du-Rhône and Alpes-Maritimes departments, with part of the output secured by a corporate PPA with CERN.
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China Energy’s first Tower CSP joins two by PowerChina at Talatan – SolarPACES

Photo source: New York Times article
Source:CSTA
[CSTA News we missed from January 2026:Ed]
On 29 December, China Energy’s first tower concentrating solar power (CSP) project—the 100 MW Qingyu HVDC Phase-II plant of Qinghai Gonghe Co.—was successfully synchronized to the grid.
The plant is the group’s maiden tower CSP venture. Despite the thin air of the Qinghai–Tibet Plateau, complex processes and a tight schedule, the team met the corporation’s “two-no-exceed, three-zero” construction mandate (no budget overrun, no schedule slip, zero major accidents, zero quality defects, zero environmental incidents). Optimized sequencing enabled the civil foundations to reach grade level in one pour and the turbine hall to receiver panels were hoisted with millimetre precision in a record 8.5 days, setting a new benchmark for comparable projects.
The facility adopts a “CSP + PV” hybrid configuration with 12-hour molten-salt thermal storage, allowing otherwise-curtailed solar electricity to be banked and dispatched later. IoT sensors, big-data analytics and AI algorithms feed an intelligent site platform and a digital-construction showcase, giving full-cycle digital control. More than 98 % of key CSP components and valves are domestically produced. Average plant availability exceeds 76.68 %, solar-to-electric conversion is ≥ 13.39 %, and turbine cycle efficiency tops 41.77 %—all indicators placing the project at the leading edge of domestic performance.
Throughout construction the “eco-first, green-build” principle was enforced. Environmental protection measures were designed, implemented and commissioned in parallel with the main works; “build-while-restore” practices limited disturbance. Centralized work zones, water-spray dust suppression and revegetation cut ecological impact; low-carbon insulation materials and a rigorous HSE system identified and resolved over 1 000 hazards, achieving 100 % ecological-restoration index. Concurrently, 20 km² of ecological forest and a solar-pasture demonstration zone were created, planting 66 000 trees and reseeding 3 000 mu of grassland to form a “panels-generate-power, sheep-graze-between, grass-grows-below” agro-photovoltaic model.
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Solar fuels are made using thermochemistry driven by direct heat from the sun In this process, solar thermal energy provides the heat for thermochemical reactions to produce new compounds such as green hydrogen or sustainable aviation fuel. Highly concentrated solar…
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Published at Energy Conversion and Management – Short-term optimal scheduling of a cascade hydropower-wind-photovoltaic-concentrated solar power hybrid power system considering dynamic frequency security constraints and flexible load response – SolarPACES


Abstract:
As the penetration of renewable energy sources such as wind and photovoltaic generation continues to rise, the inherent randomness and intermittency of their output pose significant challenges to system frequency stability. To address the limited frequency regulation capability under high renewable penetration, this paper proposes a short-term optimal scheduling approach for a cascade hydropower-wind-photovoltaic-concentrated solar power hybrid system that explicitly incorporates dynamic frequency security constraints. First, a dynamic frequency constraint framework is developed that simultaneously accounts for inertial response, the rate of change of frequency and nadir frequency limits, and these constraints are embedded in the short-term scheduling framework as a mixed-integer linear programming formulation. Second, a coordinated frequency regulation strategy is then proposed for cascade hydropower and concentrated solar power units, with additional frequency support provided through reserved capacities of wind and photovoltaic units. Furthermore, a price-responsive flexible load model is introduced to achieve refined source–load coordination. Simulation studies on an extended IEEE 30-bus system demonstrate that the proposed approach improves the frequency nadir from 49.62 Hz to 49.94 Hz and reduces the maximum rate of change of frequency from 0.8357 Hz/s to 0.1378 Hz/s, thereby significantly enhancing the frequency-security margin. Meanwhile, the flexible load strategy reduces unnecessary hydropower cycling, increases renewable utilization, and improves overall economic performance. Thus, the proposed joint optimization of multi-energy coordinated frequency regulation and flexible load response can substantially improve the frequency security and economy of high-RES penetration power systems, providing a feasible solution for developing safe, economical, and efficient low-carbon power systems.
Yunbo Yang, Chengguo Su, Quan Tan, Shuo Han, Ruiming Zhang, Yuting Cui, Short-term optimal scheduling of a cascade hydropower-wind-photovoltaic-concentrated solar power hybrid power system considering dynamic frequency security constraints and flexible load response, Energy Conversion and Management, Volume 347, 2026, 120560, ISSN 0196-8904, https://doi.org/10.1016/j.enconman.2025.120560
 
 
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Berkeley County panel advances plan to lift Cross moratorium for 1,500-acre solar farm – WCIV

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India Solar Milestone: 150 GW Reached with Record 44 GW Jump – Deccan Herald

India Solar Milestone: 150 GW Reached with Record 44 GW Jump  Deccan Herald
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Iberdrola Australia completes solar module installation at 377MW Broadsound site in Queensland – PV Tech

Iberdrola Australia has completed the installation of solar modules at its 377MW Broadsound solar-plus-storage project in Central Queensland, marking a construction milestone for what will become the company’s largest operational solar facility in Australia.
According to a LinkedIn post, the project team installed the final modules last week, bringing the total module count to 609,522 across the site located approximately 60km northwest of Mackay.

The installation phase involved driving more than 91,000 piles and mounting 7,006 solar trackers.
A mechanical installation team of 110 personnel completed the module deployment, with close to half identifying as First Nations workers. The installation crew forms part of a broader workforce of several hundred personnel currently working to finalise the project, which is expected to commence operations later this year.
Iberdrola Australia broke ground on the Broadsound project in September 2024, with construction commencing shortly after the company secured all necessary approvals. The organisation completed its “golden row” milestone in May 2025.
The facility will combine 377MW of solar generation capacity with a 150MW/300MWh battery energy storage system, enabling the project to dispatch power during evening peak demand periods when solar generation declines.
Broadsound will connect to the National Electricity Market (NEM) via the existing Broadsound substation, feeding renewable energy into Queensland’s grid as the state accelerates its transition away from coal-fired generation. The project is expected to generate approximately 900GWh of electricity annually.
Broadsound is expected to be the organisation’s largest solar PV project in the country. It is closely followed by the 245MW Avonlie solar PV plant in New South Wales, comprising more than 450,000 solar panels.
The company is also developing the Port Augusta Renewable Energy Park in South Australia. The site consists of 50 wind turbines and 250,000 solar modules, granting 217MW of wind and 110MW of solar PV generation.
Since 2020, when it acquired renewables firm Infigen Energy, now Iberdrola Australia, the Spanish energy company has invested in several solar and wind projects in the country and acquired engineering, procurement, and construction (EPC) provider Autonomous Energy.
Indeed, in 2022, Iberdrola committed to investing between €2-3 billion (US$1.99-2.99 billion) in renewable energy assets in Australia.
The completion of installing the solar modules at Broadsound leaves remaining construction activities focused on electrical infrastructure, grid connection works, and commissioning of both the solar array and battery storage system. Iberdrola has not yet announced a specific date for the facility’s commercial operations.

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SEG Solar Announces New US 4 GW Solar Module Factory – Morningstar

SEG Solar Announces New US 4 GW Solar Module Factory  Morningstar
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New Research Uncovers Interface-Level Physical Mechanisms Driving Ultraviolet Degradation In Topcon Solar Cells – megaproject.com

Researchers at Yangzhou University in China have investigated ultraviolet-induced degradation (UVID) pathways in both passivated emitter and rear cell (PERC) and tunnel oxide passivated contact (TOPCon) solar cells and have concluded that this phenomenon is primarily governed by the design of the front-side passivation stack.
UVID is particularly important for TOPCon technology because its high-efficiency passivation structures rely on ultra-thin dielectric and interfacial layers that are more sensitive to UV-driven defect creation and charge accumulation, which can directly impact long-term performance and field reliability.
“UV irradiation induces silicon–hydrogen (Si–H) bond breaking and interface defect generation, whereas the optimized silicon nitride (SiNx)/aluminum oxide (AlOx) passivation structure in TOPCon solar cells maintains stable field-effect passivation and effectively suppresses recombination losses, ” corresponding author Qinqin Wang told pv magazine. “Our work further demonstrated that rational passivation-layer engineering, including optimized AlOx thickness and SiNx optical matching design, is critical for improving the long-term UV stability of TOPCon solar cells.”
The research team explained that the role of interface chemistry and hydrogen dynamics in TOPCon devices is still unexplored. In particular, the response of silicon-combined AlOx and SiNx passivation layers to UV irradiation, and their impact on hydrogen passivation and interface defect formation, is not yet fully understood
The analysis focused on interface defect density (Dit) and fixed negative charge density (Qf). Dit refers to the density of electrically active defect states at the silicon–passivation layer interface, while Qf describes the concentration of immobile negative charges embedded within the passivation layers.
The scientists used a Sinton WCT-120 metrology system for sample testing and characterization. Defect and material analyses were performed using photoluminescence (PL), electroluminescence (EL), X-ray photoelectron spectroscopy (XPS), Fourier transform infrared spectroscopy (FTIR), ultraviolet photoelectron spectroscopy (UPS), UV–visible spectroscopy, and capacitance–voltage measurements for interface defect density (Dit) and fixed charge density (Qf).
Microstructure was examined using scanning transmission electron microscopy (STEM) with energy-dispersive X-ray spectroscopy (EDS). UV degradation testing followed IEC 61215 standards, with accelerated exposure of 60 and 120 kWh/m² at 60 C.
The group analyzed AlOx films with thicknesses of 3 nm, 5 nm, and 6 nm under UV exposure and found that thicker AlOx layers provide better stability and reduced performance degradation due to stronger field-effect passivation. It noted that, as AlOx thickness increases, the Qf becomes more negative while Dit shows a thickness-dependent response, indicating a balance between chemical and field-effect passivation.
In addition, the academics found that UV irradiation induces Si–H bond breaking and hydrogen migration, which modifies interface defects and charge states, while thicker AlOx layers stabilize oxygen-related negative charge centers more effectively.
As for SiNx, two refractive indices were studied, showing that low-index SiNx has better UV resistance due to lower UV absorption and reduced bond breaking at the interface. UV exposure transforms the SiNx network toward a more nitrogen- and oxygen-rich composition, increasing interface defect density and altering hydrogen-related bonds, the scientists said.
“Due to its passivated-contact design and the more robust field-effect passivation enabled by the SiNx/AlOx stack, TOPCon solar cells demonstrate significantly higher resistance to UV degradation than PERC cells,” Wang said. “After optimization, TOPCon devices show only a 0.74% efficiency loss following 120 kWh/m² UV exposure, whereas PERC cells experience a much larger degradation of 3.34%.”
“These findings indicate that resistance to UV degradation is primarily determined by the quality of interface passivation, underscoring the critical role of interface-engineering approaches in the development of next-generation silicon solar cells with enhanced UV stability,” he concluded.
The research findings are available in the study “Exploring the UV degradation pathways in N-TOPCon solar cells: Interface passivation and hydrogen dynamics,” published in Solar Energy Materials and Solar Cells. 
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Solar Systems Integration Basics – Department of Energy (.gov)

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What is solar systems integration and how does it work? Solar systems integration involves developing technologies and tools that allow solar energy onto the electricity grid, while maintaining grid reliability, security, and efficiency.
For most of the past 100 years, electrical grids involved large-scale, centralized energy generation located far from consumers. Modern electrical grids are much more complex. In addition to large utility-scale plants, modern grids also involve variable energy sources like solar and wind, energy storage systems, power electronic devices like inverters, and small-scale energy generation systems like rooftop installations and microgrids. These smaller-scale and dispersed energy sources are generally known as distributed energy resources (DER).
The electrical grid is separated into transmission and distribution systems. The transmission grid is the network of high-voltage power lines that carry electricity from centralized generation sources like large power plants. These high voltages allow power to be transported long distances without excessive loss. The distribution grid refers to low-voltage lines that eventually reach homes and businesses. Substations and transformers convert power between high and low voltage. Traditionally, electricity only needed to flow one way through these systems: from the central generation source to the consumer. However, systems like rooftop solar now require the grid to handle two-way electricity flow, as these systems can inject the excess power that they generate back into the grid.
Increased solar and DER on the electrical grid means integrating more power electronic devices, which convert energy from one form to another. This could include converting between high and low voltage, regulating the amount of power flow, or converting between direct current (DC) and alternating current (AC) electricity, depending on where the electricity is going and how it will be used. By 2030, as much as 80% of electricity could flow through power electronic devices. One type of power electronic device that is particularly important for solar energy integration is the inverter. Inverters convert DC electricity, which is what a solar panel generates, to AC electricity, which the electrical grid uses.
Since solar energy can only be generated when the sun is shining, the ability to store solar energy for later use is important: It helps to keep the balance between electricity generation and demand. This means that developing batteries or thermal storage is key to adding more solar.
The electrical grid must be able to reliably provide power, so it’s important for utilities and other power system operators to have real-time information about how much electricity solar systems are producing. Increasing amounts of solar and DER on the grid lead to both opportunities and challenges for grid reliability. Complex modern grids with a mix of traditional generation and DER can make responding to abnormal situations like storms or blackouts more difficult. However, power electronics have the potential to collect real-time information on the grid and help to control grid operations. In fact, special “grid-forming” inverters could use solar energy to restart the grid in the event of a blackout.
 
Learn more about systems integration in the Solar Energy Technologies Office, check out these solar energy information resources, and find out more about how solar works.
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Home Small Solar Battery System Market Forecast 2026-2032: – openPR.com

Home Small Solar Battery System Market Forecast 2026-2032:  openPR.com
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Supercomputer simulations found that tiny defects in solar cells actually capture more energy, and now physicists are rethinking everything about panel design – ecoportal.net

When a team of German physicists set their simulations running on one of Europe’s most powerful supercomputers, they were hunting for flaws — atomic-level imperfections at solar cell interfaces that could be smoothed away to boost performance. What they found instead stopped them short.
Certain defects, it turned out, weren’t hurting energy transfer. They were helping it. The finding arrives at an uncomfortable moment for the field: despite decades of progress, the average solar panel still converts only about 22 percent of incoming sunlight into electricity, and researchers have been racing to close that gap by pursuing ever-more-perfect materials.
Germany’s solar story is one of the most cited success cases in renewable energy. The country generated less than one percent of its electricity from solar in 2000; by 2022, that share had climbed to roughly 11 percent. Subsidies, falling hardware costs, and political will all played a role. But beneath that headline growth sits a stubborn technical limit.
The average solar panel today converts only about 22 percent of incoming sunlight into electricity — most of the rest is lost before it can do any useful work. High-energy photons, violet light for instance, carry around three electron volts of energy, but silicon can only convert about 1.1 eV into electricity. The remainder escapes as heat.
That heat loss isn’t just inefficiency on paper. It degrades cell performance and durability over time, compounding the problem across a panel’s entire working life.
One promising approach to recovering that wasted energy involves layering a molecule-thin film of tetracene — an organic semiconductor — on top of a silicon cell. Tetracene has a useful property: when it absorbs a high-energy photon, it can split the resulting excitation into two lower-energy excitations through a process called singlet fission. Those lower-energy excitons can then be passed into the silicon layer, where most of their energy gets converted into electricity rather than heat.
The challenge lies at the boundary between the two materials. Researchers have spent considerable effort trying to engineer a flawless tetracene-silicon interface, working from the reasonable assumption that any atomic irregularity would disrupt the delicate transfer of excitons. The field was moving toward cleaner, more ordered structures.
Prof. Wolf Gero Schmidt’s team at the University of Paderborn approached the problem using ab initio molecular dynamics simulations — computationally intensive calculations that track how hundreds of atoms and their electrons interact over time, advancing in femtosecond steps. To run them, the team relied on HLRS’s Hawk supercomputer in Stuttgart, one of Europe’s most capable high-performance computing systems.
What the simulations showed contradicted the prevailing assumption. Silicon dangling bonds — atoms at the interface that aren’t fully bonded to their neighbors — are typically treated as liabilities in electronic systems. Here, they were doing something unexpected: actively fostering exciton transfer across the tetracene-silicon interface rather than blocking it. The team published the findings in Physical Review Letters.
The word “defect” carries obvious negative connotations, but Prof. Uwe Gerstmann, a collaborator on the project, pushes back on that framing. Semiconductor physics already relies on strategically introduced impurities — donors and acceptors — to build the diodes and transistors underpinning modern electronics. In that context, a defect is a design tool, not a mistake.
Dr. Marvin Krenz, the paper’s lead author, put the finding in sharper relief. The field had been moving toward removing defects at all costs. This result points elsewhere. “Our paper might be interesting for the larger research community because it points out a different way to go when it comes to designing these systems,” he said.
That reframing — from “perfectly clean” to “perfectly imperfect” — is more than semantic. It opens a genuinely different set of engineering possibilities for hybrid solar cell design.
The Paderborn team isn’t claiming a finished solution. What they have is a new direction, and they intend to follow it systematically. Using future computing allocations, the group plans to deploy AIMD simulations to map out interface configurations with optimized dangling-bond patterns — essentially designing imperfection with precision.
The potential payoff is meaningful. Schmidt estimates that consistently applying singlet fission could, in principle, boost efficiency by a factor of 1.4. Solar cell efficiency has improved at roughly one percent per year across various architectures over recent decades, a slow but steady trend. Work like this, Schmidt suggests, supports the case that the trend can continue.
Whether dangling bonds eventually become a standard feature of commercial solar cell design depends on how well simulations translate into physical prototypes. But the more immediate consequence is already here: the assumption that perfection is always the goal just got considerably harder to defend.
© 2026 by Ecoportal
© 2026 by Ecoportal

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Exclusive Interview with Liu Bingbin, CEO of Zento: Aspire to Be the Home Energy Center in the AI Era, Not Just the "Pioneer" of Balcony Energy Storage – 36Kr

“I majored in information management and have always wanted to develop intelligent products.” In the office of Guangzhou Jianghai Technology (overseas brand Zendure) located in Dazun Innovation Building in Shenzhen, founder and CEO Liu Bingbin recalled his obsession at the beginning of the business to 36Kr.
He noticed early on that “adding Bluetooth and Wi-Fi to power banks doesn’t make sense. Later, when developing outdoor power sources, we also tried adding 4G modules, but there wasn’t a strong demand in outdoor scenarios.”
It wasn’t until 2022 that he discovered the balcony energy storage scenario: the device is fixed at home and connected to the internet in real-time. Users want to know how much electricity is generated and how much money is saved every day. Most importantly, different from traditional household energy storage which requires installation, balcony energy storage can be used immediately after plugging in, perfectly bypassing the bottlenecks of installation contractors and the number of electricians. It can enter thousands of households as quickly as household appliances. “This scenario is exactly the ‘highly sticky, strongly demanded, 2C consumer electronics’ scenario we want to create.” Liu Bingbin’s tone carried a long-awaited certainty.
This intelligent and 2C gene, which was planted on the first day of the business, is enabling Zendure to stand out from a group of traditional energy storage companies.
In the past five years, this national-level specialized and sophisticated “little giant”, recognized in the industry as the “pioneer of balcony energy storage”, has achieved an annualized growth rate of over 102%. According to the company’s development expectations for 2026, it is expected to enter hundreds of thousands of European households, ranking first in total sales in France and first on the independent website in Germany.
During nearly two hours of communication, Liu Bingbin repeatedly emphasized a concept: “We don’t define ourselves as an energy storage hardware company. We are the pioneers of the global plug-and-play home energy management system (HEMS).”
In his view, energy storage is just the hardware foundation, and the real barrier lies in the ecosystem and AI. Zendure has made many “ahead-of-time deployments” in this area: connecting with more than 840 European power companies, integrating over 5,000 heat pump models, and being the first to access Shelly, the largest home energy management platform in Europe. These “industry firsts” have left competitors at least one year behind.
At the end of 2025, Zendure received a strategic investment from Dazun Laser, which filled the shortcoming in the supply chain. Meanwhile, ZenWave™, the industry’s first dynamic power retail service, was launched in Germany, marking Zendure’s leap from “selling hardware” to “selling energy services” in its business model.
Liu Bingbin is not a person who likes grand narratives. In the interview, what he talked about the most were not visions but the details of product iteration: how the first generation was compatible with micro-inverters, how the second generation was made into a split design, how the third generation became an integrated one, and how they later discovered the demand for rooftop photovoltaics among French users and pioneered the AC coupling solution.
Currently, Zendure is conducting a Series C financing, and many leading institutions are actively participating. The progress is far beyond expectations.
Liu Bingbin told 36Kr that the funds will be mainly used for R & D investment and new market expansion. “Our vision is to become the home energy center in the AI era, just as the PC is the computing host in the information era. In an increasingly volatile future, people all over the world in every household will need it. Therefore, we can enter tens of millions or even hundreds of millions of households in the future.” When he said this, his tone was calm, but his eyes showed a sense of certainty.
36Kr: Your company initially focused on mobile power banks. When did you start the transformation?
Liu Bingbin: When we were founded in 2017, we only wanted to create a distinctive brand and a very durable power product. The first-generation product was a power bank that couldn’t be crushed by a car.
In 2020, the pandemic hit. Users stopped traveling, but the electricity consumption at home increased significantly, with many people working from home. We realized that the electricity consumption and energy demand were greater in the home scenario, so we shifted to home energy management. In 2022, we discovered the opportunity of balcony energy storage – it is fixed at home with Wi-Fi, and users need to monitor the power generation, electricity consumption, and money saved in real-time. It has a very strong user stickiness and is particularly suitable for intelligent and AI products. So we completely shifted to this field in 2022.
36Kr: What is the essential difference between plug-and-play balcony energy storage and traditional household energy storage?
Liu Bingbin: The essence is the decoupling of balcony energy storage from rooftop photovoltaics. Traditional household energy storage has always developed along with rooftop photovoltaics and is a “fitting” for rooftop photovoltaics. Its development is severely restricted by rooftop photovoltaics, and the hardware installation cost, labor cost, and time cost are all very high. Although it’s called balcony energy storage, it should actually be called “plug-and-play energy storage” because most of our users are villa owners who place photovoltaic panels in their gardens, and some users don’t use photovoltaic panels at all. So it is completely decoupled from rooftop photovoltaics. Therefore, it can be used immediately after plugging in without the need for an electrician to come for installation.
This category has only a history of more than three years, and we’ve explored it step by step. That’s why the industry says we are the “pioneers” of the balcony energy storage industry, haha.
The first-generation product was designed to provide energy storage for existing micro-inverter users. At that time, we found that there were hundreds of thousands of such users in Germany who had bought micro-inverters and photovoltaic panels and plugged the micro-inverters into the sockets at home to generate electricity, but had no power at night because there was no energy storage solution for micro-inverters on the market. Micro-inverters come in a wide variety of models and brands, and they don’t open their APIs. We could only drive the micro-inverters to discharge by simulating photovoltaics. But we bought all the micro-inverter brands on the market and achieved a compatibility rate of 99%, while the compatibility rate of our competitors who imitated us was less than 50%, and many of them later gave up.
In the process, we found that there were only two or three hundred thousand existing users, but the number of new users was growing faster, with hundreds of thousands of new users added in Germany every year, and the energy storage matching rate was as high as 70%. So we simply integrated the inverter and energy storage. The second generation was a split design, and the third generation was an integrated one.
When expanding into the French market in 2024, the backend data showed that 70% of users didn’t connect solar panels at all. Later, when we asked the users, we learned that they already had rooftop photovoltaics. So we pioneered the AC coupling series to provide plug-and-play energy storage for existing rooftop photovoltaics. This is very interesting.
So, to answer your question, the essence of balcony energy storage is to transform a traditional industrial household energy storage product into a plug-and-play household appliance.
36Kr: Will traditional household energy storage manufacturers shift in this direction?
Liu Bingbin: To be honest, it’s very difficult. They have their own path dependencies, and their product systems, channel systems, and service systems are all built around traditional household energy storage. If they want to shift to the plug-and-play product form, it means they have to abandon their original advantages, which is not an easy decision.
More importantly, their understanding of “intelligence” is different from ours. For many traditional manufacturers, “intelligence” just means adding an app to view data. Our AI is truly making millisecond-level decisions, dynamically dispatching energy based on weather forecasts, electricity price fluctuations, and user behavior habits. This is not a problem that can be solved by simply attaching an intelligent label. It requires data accumulation, algorithm iteration, and ecosystem integration. These can’t be caught up with overnight.
36Kr: You’ve proposed the concept of “energy host”. How can this be understood?
Liu Bingbin: The concept of the energy host is actually based on our insight into user pain points. It has two meanings: First, our integrated machine itself can serve as an energy host with a certain computing power, with built – in energy management functions. It can connect with Tesla and heat pumps and control electrical appliances through smart sockets. Second, in the future, we will launch an independent energy host that goes beyond the energy storage device. Our vision is that just as the PC is the computing center in the information era, Zendure’s “energy host + OS + ZENKI” will become the home energy center in the AI era. The strategic details of this product are kept secret for now.
36Kr: What kind of company is Zendure now?
Liu Bingbin: Our brand positioning is “the pioneer of the global plug-and-play home energy management system”, not an energy storage hardware company.
Our first-generation product already had home energy management functions. In September 2023, we were the first to connect with Shelly, the largest home energy management platform in Europe, while our competitors didn’t achieve this until September 2024. We also connected with Tesla and were the first in the balcony energy storage industry to manage electric vehicles. We can manage over 5,000 heat pump models and have connected with more than 840 European power companies, all being industry firsts. Our competitors were about one year behind. As the first brand to introduce the plug-and-play balcony energy storage system to the European market, we have fully evolved from a single hardware manufacturer to a provider of a complete intelligent energy solution. ZenWave™ dynamic power retail service is a core part of our ecosystem upgrade. This service has been launched in Germany first and is accelerating its expansion to other European countries, providing a real-time electricity price mechanism and 100% green electricity. With the intelligent dispatching of HEMS and ZENKI AI, home energy management can be upgraded from manual adjustment to system-level automation.
Based on this ecosystem, our goal is to reach one million users by the end of 2027. When we have one million users, the annual revenue from power trading and services will be a very large figure.
36Kr: From Dazun Laser’s investment, to the intensive release of new products this year, and then to the launch of the power retail service. What do these series of actions mean for Zendure?
Liu Bingbin: It means we have entered a stage of reaping the rewards of our long – term efforts. We’ve been deeply involved in this field for nearly four years and were the first in the world to introduce the plug-and-play home energy management system to the European market.
When the product was first launched in 2023, there was no such concept in the market at all. We initially used the DTC strategy for a blitzkrieg and achieved 4 million euros in the first month. But later, the supply chain became our shortcoming, and our growth was restricted during the rapid development of the industry in 2024 and 2025. In fact, we could have grown faster.
So in 2025, when we met Dazun Laser, the two sides hit it off. Dazun is a global leader in the upstream supply chain of lithium batteries and automation equipment and has many resources in the lithium battery industry. They lack a company that understands the European market, can build a 2C brand, and has R & D capabilities in the energy field. We are a perfect complement to each other. With the support of Dazun’s supply chain resources, our performance exploded in the first quarter of this year, with a year – on – year growth of nearly 200%.
36Kr: In what specific aspects does Dazun empower you?
Liu Bingbin: On the one hand, it assisted us in establishing a European headquarters in Switzerland as a strategic fulcrum to radiate across Europe. Dazun’s European headquarters is also in Switzerland, which is beneficial for building a mid – to – high – end brand image. More importantly, in terms of the supply chain, the dedicated factory they built for us can produce one million units per year, using the most advanced lithium battery laser welding and automation equipment developed by Dazun, comprehensively improving our product quality and supply chain.
36Kr: Your 5 – year compound growth rate has reached 102%. Where does the growth mainly come from?
Liu Bingbin: The growth mainly comes from our own development. One is the rapid product iteration. From the first generation to the fourth generation, each iteration covers more customers. The other is the expansion into new countries. We’ve expanded from Germany to France and the Netherlands, and we’re going to enter the UK next. The UK has just announced the opening of the balcony energy storage market. Many users are urging us to enter the UK market.
We believe this is a global revolution, and we are the driving force behind it. The plug-and-play of small micro-inverters is a basic civil right for ordinary people and should not be monopolized by the power grid. Small – power inverters below 800 watts have no impact on the power grid. All countries around the world will eventually accept this standard, which is also the basis for our future growth. In addition, we are constantly expanding the power boundaries and application scenarios of balcony energy storage, such as providing energy storage for existing rooftop photovoltaics, which is also a very promising market.
36Kr: From the perspective of global market demand, has there been any obvious change in balcony energy storage?
Liu Bingbin: It’s hard to generalize. The demand and development stage in each country are different. German users are the most educated, and the DIY user group is very large. But in other countries, rooftop energy storage may come first. For example, there are more than 3 million existing rooftop photovoltaic users in the Netherlands. The subsidy for photovoltaic power generation will end in 2027, and these users are eager to install energy storage. Generally speaking, the trend of balcony energy storage is becoming more and more intelligent and AI – enabled. In the future, balcony energy storage without AI capabilities will have no competitiveness even if it has hardware. Many competitors claim that their balcony energy storage products have AI capabilities, but in fact, they only have a user interface, and their actual AI capabilities are far from enough.
36Kr: Does the product rely heavily on national policies? What if the policies change?
Liu Bingbin: Different from traditional household energy storage, which relies heavily on national subsidy policies, balcony energy storage is actually market – driven rather than policy – driven. For example, existing rooftop photovoltaic users are starting to buy balcony energy storage precisely because of the decline of the on – grid electricity price subsidy policy. There are 40 million sets of existing rooftop photovoltaics globally, and the energy storage matching rate is only about 10%. After the subsidy decline, these users have to use the electricity they generate themselves, and energy storage has become a necessity. While traditional household energy storage in Europe and the United States costs thousands of euros for installation, our system has zero installation cost. The total price is only 1,000 euros, which has a very obvious advantage. As for the 800 – watt policy limit for balcony energy storage, more than 20 European countries have opened it, and the UK and the US are also opening up. This is a global revolution, and the trend is irreversible. We just need to follow the trend.
36Kr: Currently, does your income mainly come from hardware or software?
Liu Bingbin: Currently, our income still mainly comes from hardware, but our focus is rapidly shifting to software and services. We are a third – party power supplier and earn the electricity price difference through ZenWave™ power retail, which is a continuous source of income.
More importantly, we want to occupy the entrance of home energy management. Once millions of households form a network effect, and they pay electricity bills, manage energy, and connect Tesla and other devices with us, it will be very difficult for them to switch to other platforms. Just like the Apple ecosystem, hardware is a means to acquire customers, and the ecosystem is the moat.

ZENKI Intelligent Energy Management: Achieve 73% Cost Savings under Dynamic Electricity Prices
36Kr: Where is Zendure’s strong AI ability?

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SoftBank to make next-gen zinc-halogen battery cells in Japan for AI data centers – ESS News

Japanese investment conglomerate SoftBank Group said its telecommunitions arm, SoftBank Corp in Japan, will build zinc-halogen battery cells and storage systems for the Japanese market, and scale to 1 GWh per year.
Manufacturing will take place of both batteries and solar panels at SoftBank’s factory in Osaka, Japan, and the site will house both an AI data center and AI hardware plant. On the battery side, it will partner with South Korea-based battery company Cosmos Lab and AI firm DeltaX Co.
Cosmos Lab will work with SoftBank on what it called next-generation zinc-halogen battery cells, and work with DeltaX on the battery designs. Two ventures will be established, with AX Factory to serve as a hub for AI data center operations and hardware manufacturing, and GX Factory that will serve as a manufacturing hub for next-generation batteries, solar panels and related products.
From the press release, Softbank said “At the GX Factory, SoftBank plans to begin manufacturing battery cells and energy storage systems from the fiscal year ending March 31, 2028 (FY2027), with the aim of achieving mass production on a gigawatt-hour (GWh)-per-year scale by around FY2028.”
Zinc-Halogen
Zinc-halogen batteries use pure water as the electrolyte, adding innate safety to the design. Aqueous zinc-ion batteries have been pursued in the past, both in labs and in production, but have a tiny share of the battery market. Halogens elements include iodine, bromine, or chlorine.
Generally, the practical implementation of halogen cathodes face challenges. These, according to peer reviews, include intrinsically low electrical conductivity, severe corrosion, and competing hydrolysis reactions. However, reletive abundance of key materials may make them cost effective, along with intrinsically safe, with a relatively long lifetime.

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Rezolv Energy Commissions the St. George Solar Park in Bulgaria – Energy Industry Review

Rezolv Energy has commissioned the St. George solar park in Silistra, Bulgaria, the first of the company’s large-scale projects to come onstream. St. George has been delivered at speed, reaching full operational status in under three years from Rezolv Energy’s acquisition of the development rights.
The 225 MW solar park is one of the largest in Bulgaria and represents a major step forward in the country’s clean energy transition. Built on a 165-hectare brownfield site – the former Silistra airport – the project demonstrates how large-scale renewable energy projects can deliver both environmental and economic value through the repurposing of under-utilised land. It will be operational for at least the next 30 years.
A total investment of approximately $300 million, St. George comprises nearly 400,000 solar panels and will generate around 313 GWh of electricity annually. This represents a significant contribution to Bulgaria’s installed solar capacity and will support the country’s energy security and decarbonisation objectives.
The project also includes a 90 MW/240 MWh battery energy storage system, supported by a grant under the European Union’s NextGenerationEU programme. The storage system will enhance flexibility and support grid stability by enabling energy generated during peak sunlight hours to be deployed when it is most needed.
The project has been delivered alongside leading Bulgarian and international partners. Sofia-headquartered Solarpro, Eastern Europe’s leading technology integrator, and CMC Europe acted as engineering, procurement and construction (EPC) partners. Green Solar Energy, another Bulgarian company, delivered the high voltage works required for grid connection.
The construction of St. George was underpinned by a long-term Virtual Power Purchase Agreement (VPPA) with Ardagh Glass Packaging-Europe (AGP-Europe), an operating business of Ardagh Group. The VPPA – one of the first of its kind in Bulgaria – will supply 110 GWh of renewable electricity annually to AGP-Europe over a 12-year period.
The construction phase was also supported by €90 million in debt financing from the International Finance Corporation (IFC) and Raiffeisen Bank International.
“St. George began as a vision to transform a disused brownfield site into a flagship renewable energy project that could make a meaningful contribution to Bulgaria’s energy security and climate goals. Today, that vision has become reality. Importantly, it also marks Rezolv Energy’s transition from builders to operators and long-term custodians of critical clean energy infrastructure,” Alastair Hammond, CEO, Rezolv Energy, said.
“Delivering a project of this scale in less than three years is an outstanding achievement. St. George sets a benchmark for how large-scale renewable energy projects can be brought onstream efficiently in Central and Eastern Europe and will contribute meaningfully to the region’s energy security and decarbonisation,” Jaroslava Korpanec, Head of Central and Eastern Europe, Infrastructure at Actis, added.
“Green energy production represents the future of Europe and the world. The fact that the municipality of Silistra will host a solar power plant of this size places us in a prominent position on the national map. I would like to extend my sincere thanks to the team at Rezolv Energy for choosing Polkolvnik Lambrinovo as the site for the implementation of their large-scale project,” Alexandar Sabanov, Mayor of Silistra, noted.
 
About Rezolv Energy
Launched in 2022 by Actis, a leading growth market investor in sustainable infrastructure, Rezolv Energy is one of the largest independent renewable energy producers in Central and Eastern Europe. As well as the St. George solar park in Bulgaria, Rezolv Energy has a 2 GW portfolio of large-scale onshore wind and solar projects in construction or late-stage development in Romania. One of Rezolv Energy’s projects in Romania is Dama Solar which, with a capacity of 1,044MW, is expected to be the largest solar park anywhere in Europe once it is operational.
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Solar tech theft on the rise in Chile – pv magazine International

A survey conducted among member companies of the Chilean Solar Energy Association found a high incidence of nighttime thefts at photovoltaic installations, with the highest concentration in the O’Higgins, Coquimbo, Maule, and Metropolitan regions. Cables and conductors were identified as the most frequently stolen items, while companies have strengthened security measures, including on-site personnel, surveillance cameras, and perimeter fencing.
Image: pv magazine / AI generated
From pv magazine Latam
Chilean solar energy association ACESOL has reported that theft has become a widespread issue for photovoltaic projects, particularly in small and medium-scale distributed generation (PMGD) plants and installations located outside major urban areas. The association noted that the findings are not statistically representative, as they are based on surveys of association members conducted in August 2025, but they nonetheless highlight key trends in the frequency, location, and nature of incidents.
The report points to a geographical shift in Chile’s solar industry from the northern regions toward the central-southern zone. ACESOL says this expansion has also widened exposure to criminal activity, particularly in regions with strong PMGD growth.
“While theft within the photovoltaic sector has not yet reached the massive scale seen in other segments of the industry, we are concerned about the significant increase in incidents—especially given that theft of energized equipment does not appear to be random, but rather suggests a degree of specialization and technical expertise,” the executive director of ACESOL, Darío Morales, told pv magazine.
The data show a high recurrence rate, with more than 35% of companies reporting multiple incidents within a single month and nearly 80% stating that thefts occur in the early morning hours. The report indicates that criminal activity is concentrated at night, suggesting planned operations aimed at avoiding detection.
By geography, the most affected regions are O’Higgins, Coquimbo, Maule, and the Metropolitan Region. O’Higgins records the highest incidence, followed by the Metropolitan Region and Maule. The pattern aligns with areas of high PMGD penetration and industrial self-consumption projects. Overall, PMGD installations account for about 78.6% of reported thefts, significantly higher than utility-scale plants, storage systems, or self-consumption sites. The report attributes this to the remote location of many PMGD assets and more limited security protocols compared with large plants.
Cables and conductors are the main targets, followed by PV modules and inverters. The theft of cables reflects a broader trend across the power sector, driven by copper resale value and ease of transport. Other reported stolen items include tools, transformers, structural components, and auxiliary equipment, though less frequently.
The report also highlights impacts on personnel. While most incidents involve material losses only, several companies reported intimidation, minor injuries, and cases involving weapons or threats, suggesting an escalation from property crime toward higher-risk situations.
In response, companies have strengthened security measures, including private guards, surveillance cameras, reinforced perimeter fencing, alarm systems, insurance coverage, and coordination with local police. Additional measures include remote monitoring, improved lighting, motion sensors, and video transmission systems.
Overall, the association concluded that security has become a critical operational issue for Chile’s solar sector. “For this reason, it is crucial to act decisively now—by strengthening preventive measures, enforcement, and prosecution of these crimes—before this trend escalates further,” Morales said.
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A pilot project in California covered irrigation canals with solar panels and reduced water evaporation by up to 70%, cut algae growth by 85%, and also made the panels produce up to 5% more energy because the water underneath cools the modules better th – CPG Click Petróleo e Gás

Construction
California faces a chronic problem affecting everyone from farmers to big-city residents: water scarcity. The state has already lost 40% of its Colorado River allocation this year, and every liter saved makes a difference in a region where severe droughts have become routine. It is in this context that a pilot project called Nexus tested a solution that seems obvious once explained: covering irrigation canals with solar panels to simultaneously generate energy and reduce the evaporation of water flowing through these open-air canals.
The results from the first full irrigation season confirmed that the concept works. The Nexus installation, with a capacity of 1.6 megawatts, was built over canals operated by the Turlock Irrigation District in California, and the covered sections recorded evaporation reductions of between 50% and 70%. Algae growth in the shaded sections dropped by 85%, which significantly reduces canal maintenance and pump cleaning costs. And the solar panels, benefiting from the natural cooling provided by the water underneath, produced between 2.5% and 5% more electricity than equivalent ground-mounted modules.
California’s canal network stretches for approximately 4,000 kilometers, transporting water from regions with greater water availability to agricultural and urban areas that depend on this infrastructure. These canals are open, exposed to sun and wind, which causes continuous evaporation and algae growth that clogs pumps and increases operational costs. Covering these canals with solar panels addresses both problems simultaneously: the shade reduces evaporation and inhibits algae growth, while the modules generate clean electricity.
Avenida Liberdade hasn’t even been fully inaugurated yet, but uneven surfaces on its bridges are already a concern for drivers and cyclists in Belém, with cracked sections, an irregular road surface, and increased risk for those traveling at 80 km/h on the Pará expressway during their daily commute.
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Homeowners are suing Elon Musk’s SpaceX for severe structural damage to their homes caused by rocket tests in Texas.
A University of California study calculated that covering the entire length of the state’s canals would generate 13 gigawatts of energy annually and save 63 billion gallons of water. This volume of water is enough to meet the residential needs of over 2 million people per year. For a state grappling with rationing, wildfires exacerbated by drought, and increasing pressure on its water resources, the possibility of saving billions of liters while producing renewable energy is hard to ignore.
One of the most interesting findings from the California pilot project is the efficiency gain of solar panels when installed over water. Photovoltaic modules lose efficiency as they heat up, and conventional installations on dry ground or dark rooftops suffer from temperatures that can exceed 60 degrees Celsius on the panel surface. Over the canals, the natural evaporation of water creates a cooler airflow that keeps the modules at lower temperatures during peak solar hours.
The result is a 2.5% to 5% increase in electricity production compared to ground-mounted panels, according to Nexus Project data. It might seem small in percentage terms, but when multiplied by the 4,000 kilometers of canals and the estimated 13 gigawatts of total capacity, this efficiency gain represents additional gigawatt-hours of clean energy produced every year with no extra equipment cost. The water that evaporates and cools the panels would be lost anyway; with solar coverage, part of this evaporation is retained, and the rest contributes to the modules’ performance.
Algae growth in irrigation canals is an operational problem that costs millions of dollars annually in maintenance in California. Algae proliferate in water exposed to direct sunlight and clog filters, pumps, and gates, requiring constant cleaning and reducing the efficiency of the water distribution system. By covering the canals with solar panels, shading drastically reduces light incidence on the water, cutting algae growth by 85% according to data from Project Nexus.
This reduction is not just an environmental benefit, but a concrete operational saving. Fewer algae mean fewer maintenance shutdowns, longer lifespan for pumping equipment, and lower consumption of chemicals used in water treatment. For irrigation districts operating these canals, maintenance savings can help offset part of the initial investment in panel installation, making the project more economically attractive over time.
Despite promising results, the project faces resistance, and the main argument against it is financial. The installation of solar panels over irrigation canals requires heavy steel support structures that must span the entire width of the canal, and these structures alone can account for up to 40% of the total project cost. This value is significantly higher than that of ground-mounted solar farms, where panels are fixed on simpler structures on flat terrain.
Critics argue that California has vast expanses of cheap desert land where traditional solar panels can be installed at a much lower cost. A desert solar farm avoids the engineering complications of building over canals and does not interfere with the operation of the irrigation system. However, this argument ignores a factor that project proponents consider essential: desert solar farms generate energy but do not save a drop of water, and in California, water is as valuable as electricity.
Shading the canals solves problems, but it can also create new ones. Reducing evaporation means less local humidity being released into the atmosphere, which will likely have minimal impact on the region’s climate, but it could disturb aquatic ecosystems by decreasing dissolved oxygen in the canal water. Organisms that depend on sunlight and natural oxygenation may be negatively affected by permanent coverage.
Maintenance teams also need regular access to the canals for desilting and repairs, and suspended panels significantly complicate this work. Any structural intervention in the canal requires temporary movement or removal of the modules, which adds cost and operational complexity. Project Nexus will continue collecting data in the coming seasons to determine whether California will expand the concept or conclude that the ecological and operational trade-offs do not justify the energy and water gains.
California is not the first region in the world to test solar panels over irrigation canals. India has already built similar solar projects on its canals, proving that the concept works in different climates and geographical regions. The Indian experience demonstrates that the technology is viable in both tropical regions with high solar radiation and temperate zones, and that the benefits of water saving and energy generation are maintained in varied contexts.
For California, the Indian reference serves as proof that scaling the project is not a theoretical gamble, but a decision with real precedents. The difference is that the proposed scale for the American state is much larger, with 4,000 kilometers of canals and a potential of 13 gigawatts, which would require proportional investments and face regulatory, environmental, and political challenges that smaller projects do not encounter. The economic calculation only changes when the saved water receives a real monetary value, something that California’s chronic drought makes increasingly urgent.
Project Nexus has demonstrated that covering irrigation canals with solar panels works. Evaporation drops by up to 70%, algae decrease by 85%, energy produced is up to 5% higher than in conventional installations, and the water saved would be enough to supply millions of people. The concept is validated. The question now is whether California believes that the water and energy benefits justify the higher cost of support structures and the operational complications the project entails.
Do you think covering canals with solar panels is the best solution for the water and energy crisis, or would it be more practical to invest in solar farms in the desert? Tell us in the comments what you think about California’s project, if Brazil could adopt something similar in its irrigation canals, and what caught your attention the most: water savings, the reduction of algae, or the natural cooling of the panels.
I cover construction, mining, Brazilian mines, oil, and major railway and civil engineering projects. I also write daily about interesting facts and insights from the Brazilian market.
© 2026 Click Petróleo e Gás – All rights reserved

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UK's last coal-heated hospital completes switch to heat pumps and solar panels – Business Green

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The new solar array at Nottingham City Hospital / Credit: Vitali Energi
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India Ranks 3rd Globally in Installed Renewable Energy Capacity – INSIGHTS IAS

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Subject: CME

Subject: CME
Context: India has emerged as the world’s 3rd largest country in installed renewable energy capacity, reflecting rapid growth in solar and wind power generation.

India Ranks 3rd Globally in Installed Renewable Energy Capacity
India Ranks 3rd Globally in Installed Renewable Energy Capacity

About India Ranks 3rd Globally in Installed Renewable Energy Capacity:
What it is?
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Trinasolar achieves 28.00% efficiency for THBC cells – PV Tech

Trinasolar has announced that its TOPCon-compatible hybrid back-contact (THBC) solar cell has achieved a conversion efficiency of 28.00%, verified by Germany’s Institute for Solar Energy Research Hamelin (ISFH).
This achievement marks the first time a large-format 210R crystalline silicon cell has surpassed the 28% efficiency threshold, setting a new benchmark for mass-producible monocrystalline silicon technologies. It also marks the 39th time Trinasolar has set or broken a world record in solar cell efficiency, further consolidating its industry leadership.
Different from TBC, the newly launched THBC cell integrates TOPCon passivated contacts, heterojunction (HJT)-type surface passivation and a back-contact electrode design, a hybrid high- and low-temperature passivation approach further enhancing passivation performance while maintaining compatibility. In this way, THBC-based modules are intended to not only  increase efficiency, but to also enhance appearance and deliver additional customer value in premium distributed-generation applications.
Designed for mass production, the THBC cell is not only compatible with 110–130 μm thin wafers, but also with current mainstream TOPCon production lines, offering a cost-effective upgrade pathway. Based on its existing THBC pilot line, Trina is advancing the industrialization of THBC modules, with its THBC-based products due to be launched soon.
The breakthrough is further underpinned by the company’s long-term R&D investment in both TOPCon and back-contact (BC) technologies. With more than a decade of expertise in BC architectures since 2014, it has continuously advanced cell efficiency limits through iterative innovation across multiple technology generations.
Trina chairman Gao Jifan commented: “In the next phase of crystalline silicon, Trinasolar will drive innovation and lead the industry development through scenario-driven solutions enabled by TOPCon and THBC. With the mission of ‘Solar energy for all’, we will continue to unlock the potential of TOPCon for bifacial applications while accelerating the industrialization of THBC for high-value distributed scenarios, delivering higher efficiency and greater value to customers worldwide.”

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Philippines Solar PV Inverter Market Estimated to Exceed USD 50.38 Million During 2026-2034 – openPR.com

Philippines Solar PV Inverter Market Estimated to Exceed USD 50.38 Million During 2026-2034  openPR.com
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Church among first in area to convert to solar energy – carolinacoastonline.com

Cloudy skies early, then partly cloudy after midnight. Low 52F. Winds NNE at 10 to 20 mph..
Cloudy skies early, then partly cloudy after midnight. Low 52F. Winds NNE at 10 to 20 mph.
Updated: May 11, 2026 @ 8:07 pm
Solar panels sit atop a section of First Presbyterian Church in Morehead City on April 29, as the church becomes the first in its denomination in Eastern North Carolina to go to solar energy. (Cheryl Burke photo)

Solar panels sit atop a section of First Presbyterian Church in Morehead City on April 29, as the church becomes the first in its denomination in Eastern North Carolina to go to solar energy. (Cheryl Burke photo)
MOREHEAD CITY — First Presbyterian Church in Morehead City has become the first church among its denomination in Eastern North Carolina to switch to solar energy to save on electricity bills.
The church has installed 138 solar panels on sections of its buildings, and if the project produces the savings they expect, Dianna Downey, a church elder that helped move the project forward, said they may consider adding more panels in the future. The current panels, installed April 20-27, serve two sections of the church.
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Assessment of Nigeria’s agrivoltaic potential identifies northern states as optimal areas – pv magazine International

A geospatial assessment of agrivoltaic potential in Nigeria finds greatest opportunity in the country’s northern regions with plentiful cropland, high solar irradiance and low electricity access rates. It calculated that meeting projected mid-century solar demand in the states of Kano, Katsina and Jigawa could be achieved by installing agrivoltaics on less than 1.5% of cropland.
Image: Abdulsamad Rabo/Unsplash
Some of Nigeria’s most populous states could meet future solar demand by utilizing less than 1% of existing cropland for agrivoltaics, according to new research.
Researchers based at the University of Texas Rio Grande Valley, Indiana University and Cornell University in the United States have carried out a national assessment of agrivoltaic suitability and land-use implications across Nigeria. Their findings are presented in the research paper  “Geospatial assessment of agrivoltaic opportunities and land use requirements in Nigeria,” available in the journal Scientific Reports.
The team first mapped the land area covered by croplands in Nigeria, then assessed solar energy potential within the croplands using a raster dataset from the Global Solar Atlas. They also computed the aridity index of the areas, explaining in the research paper that the benefits of agrivoltaics tend to be higher in drier regions.
This work allowed the team to create a composite suitability index based on cropland extent, average solar output potential and average aridity index, in order to identify promising sites for agrivoltaics. They also calculated the land area that agrivoltaics would require to meet projected 2050 solar capacity additions in each state of Nigeria.
Rafael M. Almedia, assistant professor at Indiana University and corresponding author of the research paper, told pv magazine that while Nigeria has a major opportunity for agrivoltaics, the opportunity is not spread evenly across the country.
Results from in the research paper highlight Nigeria’s northern states, with abundant and water-stressed cropland, high solar irradiance and low electricity access rates, as areas with the greatest potential for agrivoltaic systems to generate co-benefits. “That overlap matters because in hot, water-stressed regions, partial shading from solar panels can often reduce heat and evaporation stress on crops,” Almedia explained.
Southern Nigeria, including the area home to the country’s capital, Lagos, exhibited lower suitability for agrivoltaics, which the research paper attributes to its humid forest covering, weaker solar potential and comparatively sparse cropland.
Almedia added that in the northern states of Kano and Katsina, two of Nigeria’s three most populous states, results suggested that future solar demand could be met using less than 1% of existing cropland for agrivoltaics. In contrast, southern states of Nigeria would require much larger fractions of existing cropland, of between 5.9% to 18.9%, to agrivoltaics in order to fully meet projected 2050 solar energy targets. 
“That is striking, especially because northern states are generally more energy poor, and many of these same high-potential areas still lack reliable electricity,” Almedia explained. “Agrivoltaics could therefore be especially valuable not just as a land-saving solar strategy, but as a decentralized energy option for communities that are currently underserved.”
Almedia said the research findings could help researchers, developers, and decision-makers identify promising areas for pilot projects and more detailed feasibility studies. 
“The next step is to combine this spatial analysis with local information on crops, land tenure, farmer needs, grid access, water availability and project economics,” he told pv magazine. “Field studies to verify how locally relevant crops respond to agrivoltaic systems would also be important, as relying on models developed for different climates and soil types may not translate perfectly to Nigerian conditions.”
The research paper adds that decentralized solar is expected to play a major role in Nigeria’s expanding renewables sector, pointing to the International Renewable Energy Agency’s (IRENA) estimates that off-grid solar could add an additional 75 GW to Nigeria’s power sector by 2050. It also says agrivoltaics could foster community ownership of energy systems in Nigeria, promote rural development and support progress toward multiple sustainable development goals.
Almedia suggested agrivoltaics expansion in Nigeria could benefit from demonstration projects on working farms, incentives that reduce upfront costs for farmers and rural communities, and policies that recognize agrivoltaics as both an energy and agricultural strategy. “It will also be important to connect solar developers with farmers and local communities early, so projects respond to local needs and deliver benefits beyond electricity generation,” he concluded.
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Homeowner explains the 'real' benefits of off-grid tech: 'We have power even when our neighbors don't' – The Cool Down

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Josh Wallet showed off his Tesla Powerwall system while breaking down a few of the pros.
Photo Credit: YouTube
In the face of rising energy costs and unstable, aging grids, U.S. homeowners are quickly learning about the widespread benefits of solar panels and battery backup systems. 
One homeowner recently took to YouTube to share how their off-grid tech has transformed their home energy system. In the short clip, Josh Wallet (@JoshsSmartHome) showed off his Tesla Powerwall system while breaking down a few of the pros of adopting energy storage and solar panels. 
“The real reason to get the Tesla Solar [and] Powerwalls is so you don’t lose electricity,” Wallet said. Wallet explained that his home experienced 17 power outages over the past year, including one that lasted four hours. He added that his area typically sees even more blackouts in an average year.
However, with his Tesla Solar and Powerwall upgrades, he retains his power and keeps his lights on regardless of what is happening to the grid. “If [an outage] comes up, we have power even when our neighbors don’t,” he said. 
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.
It’s true that switching to solar with a home battery system can help protect your home during power outages, but many homeowners say the biggest benefit is the long-term savings. By generating and storing their own electricity, homeowners who go solar through companies like EnergySage can avoid expensive peak utility rates and rely on low-cost solar energy.
To learn more about how solar can transform your energy bills, connect with EnergySage. Its free tools can help you get quick solar installation estimates and compare quotes.  
Wallet demonstrated in real time how quickly his Tesla Powerwall system takes over during a blackout. At the click of a button, Wallet took his home off the power grid. 
The video shows that the lights didn’t even flicker. Instead, the Powerwalls took over within a fraction of a second, providing enough energy to power all of Wallet’s lights and appliances. 
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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.
Even better, Wallet said he set up automations that automatically shut off nonessential appliances, helping his backup batteries and solar panels keep critical devices running for longer during outages.
If Wallet’s testimony has you curious about a clean-energy upgrade, EnergySage can help you save up to $10,000 on the cost of solar panel installations. 
Plus, EnergySage can help you compare the average cost of solar in your area and give you details on local incentives with its helpful mapping tool. It ensures you snag the best price possible on panels. 
And, if you’re looking to protect your home from outages, get off the grid entirely or just store energy to avoid peak rates, EnergySage can help you find the right backup battery to pair with your solar panels. Check out its battery resources to get started. 
💡Go deep on the latest news and trends shaping the residential solar landscape
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India ranks 3rd globally in renewable energy capacity – The Indian EYE

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New Delhi
India has climbed to the third spot worldwide in installed renewable energy capacity, beating Brazil, Union Minister for New and Renewable Energy Pralhad Joshi announced today. This big jump shows India’s fast push towards clean power and green goals.
The news comes from the latest Renewable Energy Statistics 2026 by the International Renewable Energy Agency (IRENA). India now holds 283.5 GW of non-fossil power capacity, after China at 2,258.02 GW and the US at 467.92 GW. In 2025-26 alone, the country added a record 55.3 GW, taking the total past Brazil’s level.
Minister Joshi shared this update, praising the growth in solar, wind, and other green sources. This rise helps India meet its climate targets and cuts reliance on fossil fuels. The Ministry of New and Renewable Energy called it a key step in building a low-carbon system.
Why does this matter? It boosts India’s role as a green energy leader amid global climate talks. Experts say this fast growth comes from strong government policies and investments. India first hit this rank after steady adds in clean power over years.
How did it happen? Targets like 500 GW non-fossil capacity by 2030 drive projects across states. This puts India ahead in the race for sustainable energy.
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EcoFlow’s Balcony PV System With Plug-In Electricity Meter Reader – TaiyangNews

EcoFlow’s STREAM series balcony PV plus storage systems can now be integrated with everHome’s EcoTracker IR, a plug-in meter reader 
This feature, which works on a device-to-device connectivity, enhances communication speed and reliability compared to the smart meter 
According to the company, this feature is currently available in Germany 
Balcony PV plus storage systems provider EcoFlow recently announced that its STREAM series balcony PV system can be integrated with the everHome EcoTracker IR, a plug-in reader for a digital electricity meter. everHome is a Germany-based manufacturer of smart home ecosystems compatible with third-party devices. 
The STREAM series system typically combines plug-in batteries, either STREAM Ultra X, STREAM Ultra, or STREAM AC Pro, with the PV array, STREAM microinverter, and a smart meter. Afterward, the company’s energy management system, available as an app installed on a prosumer’s device, monitors and controls energy flow and consumption in real time. Here, the smart meter, a bidirectional device, measures solar generation and consumption and detects grid imports and exports. It can also restrict unwanted feed-in to the grid (zero export), helping in maximizing captive solar harvesting. These complex operations are processed via a wireless communication network that is typically linked to the manufacturer’s or grid operator’s cloud dashboards.  
In this context, everHome’s plug-in reader, when integrated with EcoFlow’s balcony PV system, eliminates the need for a smart meter. Unlike cloud-based remote communication, which depends on internet reliability, it relies on device-to-device local connectivity. It enables faster and more reliable communication without grid exports. As a result, this latest feature helps harvest more solar energy by charging and discharging based on the prosumer’s actual load profile.  
Arne Herkelmann, Product Manager Europe at EcoFlow, summarized the essence of this new feature by saying this integration “… offers users another way to connect real-time meter data of the household with generation and storage in one system.” He added, “This provides more transparency, smarter charging and discharging behavior, and a much easier way to increase self-consumption” without a smart meter. 
According to the company’s press release, this live functionality is currently available in Germany. 
TaiyangNews 2024

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Solar farm with grazing sheep proposed in town of Watertown – WWNY

TOWN OF WATERTOWN, New York (WWNY) – A proposed development in the town of Watertown could bring housing and a solar farm that uses grazing sheep to maintain the land.
A public hearing for zoning approval will be held Friday at 7 p.m. at the town of Watertown municipal building.
The project site is along Summit Valley Drive. Samaritan Summit Village can be seen in the distance.
The development could include a solar farm and sheep as part of agrivoltaics, the practice of using the same land for both solar energy and agriculture.
“If we can put solar panels on less than prime farm land and graze sheep or grow something around the panels, then that’s not as bad of an impact,” said Jay Matteson, Jefferson County agricultural coordinator.
According to a March letter to the town of Watertown from developer Mike Lundy, plans may include single-family housing along Spring Valley Drive and put the solar “at the rear of the parcel.”
In the letter, Lundy writes that creating solar development with a microgrid would help power the buildings at the Washington Summit complex and reduce energy costs there.
The letter says landscaping would help hide the fencing and solar panels, and using agrivoltaics, mainly sheep, would help graze and fertilize the farm land.
“There is a farm that is actually doing very well here in Jefferson County, renting their sheep to solar companies. I love entrepreneurship. It’s so great,” Matteson said.
Lundy said plans are in the early stages, and the location is subject to change.
Copyright 2026 WWNY. All rights reserved.

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JA Solar set to return to quarterly profit in 2026, industry inflection point expected in H2 – PV Tech

Amid the PV industry’s toughest downturn, Chinese solar manufacturer JA Solar held its 2025 annual results briefing on 6 May, offering the market a key glimpse of when the sector may turn the corner.
Senior management, including executive president Yang Aiqing, CFO Sun Peng, and operations centre president Guo Yafei, attended the investor Q&A session. As the entire industry is still mired in losses, the company reported a net loss of RMB4.608 billion (US$678 million) for 2025.

During a lengthy Q&A session, top-tier institutions such as Morgan Stanley and CICC, along with tens of thousands of retail investors, all focused on one core question: as the industry undergoes sweeping capacity consolidation, when will JA Solar return to profitability?
An objective review of JA Solar’s financial performance is essential. In 2025, amid an industry supply-demand imbalance and brutal price wars, JA Solar posted revenue of RMB49.129 billion and a net loss of RMB4.608 billion. In Q1 2026, the company generated revenue of RMB9.216 billion while posting a net loss of RMB 1.067 billion.
Affected by the industry off-season in Q1 2026, the company saw a moderate decline in shipments of solar cells and modules, with total shipment volume hitting 11.87GW, including 11.7MW for internal use. Overseas module shipments accounted for roughly 77.16% of the total, almost at the same level as fellow Chinese manufacturer JinkoSolar. Solar exports from China have seen a big spike in March 2026, according to think tank Ember, with 68GW of solar PV products exported from China, doubling the figures from February.
On the surface, the quarterly results make for a disappointing reading.
JA Solar’s management frankly acknowledged at the briefing that despite broad headwinds across the PV sector, streamlined operations have kept the company’s losses relatively contained and manageable compared with industry peers.
Investors repeatedly raised concerns at the event over shrinking gross margins eroding net asset value. Faced with mounting pressure from short-term borrowings and current liabilities due within one year, JA Solar has upheld the principle of “cash is king”.
Management emphasised that safeguarding cash flow remains its top priority. By rigorously controlling capital expenditure and optimising supply chain operations, the firm has maintained solid cash reserves to weather the industry downturn. Its pragmatic strategy of prioritising survival over blind expansion has earned considerable confidence from the capital markets.
Discussions on technological routes stood out as one of the most substantive parts at the earnings briefing.
As a long-standing leading module manufacturer, JA Solar invested RMB2.958 billion in R&D in 2025, representing over 6% of its annual revenue. This sustained investment has built a solid technological advantage. The company’s mass-produced n-type Bycium+ solar cells have achieved a conversion efficiency of up to 27.5%, placing them among the highest levels for commercially available products.
The company’s high-power module product line is steadily ramping up production. These products command a price premium of RMB0.05-0.08 per watt over standard modules, with an even wider premium in overseas markets, delivering meaningful support to gross margins and profitability. The product series has already been commercially deployed across a wide range of application scenarios.
Facing industry-wide soaring silver prices, JA Solar has advanced its silver-plated copper technology. Management noted that the technology has passed lab verification and small-batch mass production trials. While the company maintains a quality-first approach and is taking a prudent stance on full-scale commercial rollout, this technological reserve opens up significant potential for future cost reduction. In a high silver-price environment, players that effectively curb silver consumption gain a crucial competitive edge in industry price competition.
JA Solar is building new growth drivers through integrated PV-storage solutions and global expansion. Energy storage was once seen merely as a supporting accessory to the PV business. Today, JA Solar has set up a dedicated storage division, moving beyond pure equipment supply. The company’s storage strategy centres on a “PV + Energy Storage + X” model. It is currently prioritising overseas markets, focusing its product portfolio on commercial, industrial, and residential storage systems, while adopting an asset-light, high-inventory-turnover operating model.
On investors’ top concern – when losses will reverse – JA Solar offered a relatively optimistic timeline.
Hampered by legacy order arrangements and rising silver prices, JA Solar remained in the red in Q1 2026. Even so, the company has set a full-year return to profitability as its official target. JA Solar noted that its gross margin already turned positive in Q1 2026, signalling an improving profit trend. While Q2 is still expected to face lingering pressure, the second half of the year stands a good chance of delivering quarterly profitability, as supportive policies take effect and market prices and shipment volumes stabilise.
JA Solar’s management projected that, backed by technological advances, supply chain optimisation, and the ramp-up of overseas production, the company could achieve quarterly profits in Q3 and Q4 if market conditions recover.
Global PV installed capacity is projected to decline year-on-year in 2026, yet surging power demand from AI data centres has introduced a new growth variable for the sector.
Management made it clear that the rapid expansion of the storage sector will bolster PV demand. Starting in 2027, when the global PV market resumes positive growth, solar PV and energy storage will emerge as the industry’s core growth driver.

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Gokin Solar ships 3 million BC modules from Guangzhou – Solarbytes

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Gokin Solar has announced the rollout of its 3 millionth Back Contact solar module from Guangzhou, China. The milestone marked Gokin Solar’s transition from early-stage capacity ramp-up to stable mass-scale BC module manufacturing. Gokin Solar stated that growing international demand, particularly from Europe, has supported production expansion for premium photovoltaic applications. According to Gokin Solar, the front-side gridless BC module design has aligned with architectural requirements across residential and commercial sectors. Xu Zhiqun, Chairman of Gokin Solar, said the milestone demonstrated scalable production capabilities for Back Contact photovoltaic technology. Gokin Solar added that the achievement strengthened its role within the global Tier-1 photovoltaic supply market.

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Waaree Energies Bets Big on US Manufacturing With Solar Cell Investment Plans – Electronics For You BUSINESS

Waaree Energies is expanding its US manufacturing footprint and evaluating solar cell production to strengthen localisation and capture a larger share of the growing American solar market. 
Waaree Energies is accelerating its global growth strategy with a strong focus on investments and capacity expansion in the United States, aiming to strengthen its position in one of the world’s fastest-growing solar markets. According to a report by The Economic Times, the company is evaluating the establishment of a solar cell manufacturing facility in the US as part of its long-term localisation strategy.
The company is currently expanding the capacity of its existing US solar module manufacturing facility from 1.6 GW to 4.5 GW, a scale-up expected to be completed within the next six months. Chairman and Managing Director Hitesh Doshi stated that once this expansion is operational, Waaree may move ahead with investments in a dedicated solar cell plant to deepen its manufacturing presence and improve supply chain integration.
Investment-led expansion has already begun. In September last year, Waaree Solar Americas Inc., the firm’s US subsidiary, acquired American assets of Swiss solar technology company Meyer Burger for $18.5 million. The deal included a heterojunction (HJT) technology-based assembly line capable of producing 1 GW of solar modules annually, strengthening Waaree’s advanced manufacturing capabilities in North America.
The strategic push comes as the US solar market records annual demand of nearly 50–60 GW while remaining heavily dependent on imports, which supply around 80–85% of total requirements. By expanding local production, Waaree aims to align with regulatory policies and customer preferences while increasing its currently modest market share.
In India, Waaree Energies holds an estimated 15–18% share of the solar module market and is expanding across the renewable energy ecosystem, including battery storage, electrolysers, inverters, and other clean-energy components. Supporting its growth ambitions, the company plans a ₹100 billion fundraising initiative as it targets annual revenue of ₹1 trillion by 2030.
As of May 11, 2026, at 9:23 AM, Waaree Energies’ shares were trading at ₹3,237.40 on the NSE, up 0.23% from the previous close, reflecting steady investor confidence amid its global expansion plans.

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