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Switzerland’s photovoltaic market slowed in 2025, with newly installed capacity falling 15% to 1,526 MW, according to Swissolar. Despite the decline, growth in residential storage, building electrification, and EV integration points to a gradual market recovery.
An Swiss alpine PV project developed by Axpo
Image: Axpo
The Swiss photovoltaic market saw a significant contraction in 2025. While official figures will not be published until July, local association Swissolar association has revealed that newly deployed PV capacity for last year was down 15% compared to 2024. The announcement was made at the Swiss Photovoltaic Congress in Bern on March 31 and April 1, which attracted over 1,100 participants.
In 2025, Switzerland added 1,526 MW of new solar capacity, down from 1,798 MW in 2024 and 1,640 MW in 2023. “Following the surge in electricity prices in 2022, which strongly encouraged households to install solar panels, tariffs have since fallen, mechanically reducing this momentum,” said Wieland Hintz, Head of Market and Policy at Swissolar and newly appointed Deputy Director.

If these numbers will be confirmed, Switzerland would reach a cumulative installed PV capacity of 9.62 GW by the end of December 2025.
Despite the slowdown, the market shows signs of resilience. A survey of Swiss PV companies indicates that most expect higher revenue growth in 2026 than in 2025, with margins following a similar trend. Many companies also plan to expand their workforce, a development Swissolar describes as a sign of gradual recovery.
“Order books are stabilizing, which makes me cautiously optimistic,” said Matthias Egli, Director of Swissolar. “This development is largely driven by the growth of batteries, which are opening up new opportunities.” Residential storage, electric mobility, and building technology integration are driving momentum. The sector has evolved beyond rooftop or facade PV installations, becoming part of a broader building electrification strategy that integrates storage, smart solutions, and EV charging.
The association also revealed that behind-the-meter batteries in Switzerland now total 2,461 MWh, including 1,010 MWh installed in the past year, which is an 82% year-on-year increase. “Storage and smart management significantly reduce grid flows, both in withdrawal and injection. According to the Swiss Federal Office of Energy (SFOE), this could cut grid expansion costs by 20–60%,” said Jürg Grossen, National Councillor and President of Swissolar.
Solar power’s share of Switzerland’s electricity mix is rising. Swissolar forecasts that by 2026, solar will provide 17% of the country’s net electricity consumption, which is nearly half the output of the national nuclear fleet. Coordinating PV production with storage and consumption patterns will be essential to managing this growth.
Market volatility is also increasing, with hours of negative prices on the day-ahead market projected to rise from fewer than 100 in 2023 to around 300 in 2025. “The PV sector must now adapt to market signals,” said Leo-Philipp Heiniger, renewable energy specialist at the Swiss Federal Office of Energy (SFOE).
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Number of rooftop solar PV systems installed in Spain 2016-2024, by sector  statista.com
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A research team in Germany has developed a new method for creating copper, indium, and selenium-based micro-concentrator solar cells. According to a report by pv magazine, the process uses laser-assisted metal-organic chemical vapor deposition to grow indium islands directly on a molybdenum-coated glass substrate, forming absorber arrays without requiring masks or patterning steps.
The fabrication begins with the laser array locally heating the substrate to decompose a precursor gas at specific spots, creating a grid of indium islands. A copper layer is then added, and the stack undergoes selenization to form the final absorber material. The cell structure is completed with additional buffer and window layers before the array is contacted as a single module.
The scientists noted that the indium islands formed distinct clusters that did not merge, even under high heat, and their structure remained visible after processing. They produced several micro-modules for testing.
Under standard illumination, these initial, unoptimized devices demonstrated a conversion efficiency of up to 0.65%. When exposed to concentrated light simulating up to 17 times standard intensity, the cells showed significant efficiency gains, reaching up to 250% higher output compared to their baseline performance.
The researchers identified several challenges requiring resolution, including the initial shape of the indium islands and process consistency. They concluded that addressing these issues is essential, and the method could become a fast and resource-efficient production technique for advanced micro-concentrator photovoltaics. The work was detailed in the journal Solar Energy Materials and Solar Cells and involved multiple German institutions.
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A Charles Darwin University study shows strong support for SunCable’s planned Australia-Asia PowerLink, but weaker approval for exporting its power to Singapore.
Image: SunCable
From pv magazine Australia
A Charles Darwin University study has found 89% of respondents to a research survey support the construction of Darwin-based renewable energy company SunCable’s Australia-Asia PowerLink (AAPowerLink), a proposed solar megaproject in Australia’s Northern Territory.
However, the “Made in Australia, used in Asia: Public acceptance and the cable controversy of Australia-Asia PowerLink, a remote solar megaproject” study found that approval would wane, if the produced energy doesn’t benefit them.
The study examined social acceptance of the proposed world’s largest solar plant, which would export solar energy produced in the Northern Territory to Darwin and Singapore, via a submarine cable.
Survey participants were from across Australia offering insights into attitudes towards renewable energy and the proposed project, with the majority again saying remote Northern Territory was “the perfect place to build it.”
Charles Darwin University’s Northern Institute said approval of the project declined when respondents were asked if they agreed it was acceptable to export energy overseas, with just over half at 54% of respondents saying it was acceptable to do so. However, they would change their minds if the produced solar energy was used exclusively in Australia.
Charles Darwin University Professor Kerstin Zander said while the results indicate that the developer might have a social licence to build the solar megafarm, they do not necessarily have it for exporting a large proportion of the energy.
“Part of this may be entangled with concern about the cable itself, there may also be concerns related to distributive justice,” Zander said. “Unlike in Europe where energy moves relatively freely among countries in the European Union, only half of the respondents considered it fair to produce the energy on Australian land then export most of it for use in a different country.”
Zander suggests what may be needed to raise acceptance is further consultation and awareness raising for potential benefits of the planned strategy, especially the lower greenhouse gas production in Asia if it is replaced by Australian renewable solar power.
Further results include 78% of respondents agree renewable energy production is needed to reduce Australia’s carbon emissions.
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In 2024, the cumulative installed capacity of German solar photovoltaic systems amounted to around **** gigawatt peaks. This was a noticeable increase compared to the year before. The timeline covers 2000 to 2024, showing that figures increased significantly after 2003.
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Coal power plants' installed capacity Philippines 2012-2024
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Fotowatio Renewable Ventures (FRV) Australia has announced the completion of its largest solar project to date, the 300MW Walla Walla Solar Farm in New South Wales.
Confirmed yesterday (1 October), the Walla Walla solar PV power plant has reached full commercial operation status. It represents FRV Australia’s eighth operational project and brings the company’s total Australian capacity to 993MW across its portfolio.
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Located in the Riverina region of New South Wales, approximately 40km north of Albury, the facility spans 605 hectares and incorporates approximately 700,000 solar modules using single-axis tracking technology.
The solar power plant operates under a 15-year power purchase agreement with Microsoft to supply renewable energy for the technology giant’s Australian data centre operations.
FRV Australia CEO Carlo Frigerio highlighted that the Walla Walla Solar Farm represents the company’s largest Australian project and showcases both their dedication to the nation’s renewable energy objectives.
“Walla Walla is our largest project in Australia and demonstrates our commitment to the country’s renewable energy goals. It reflects the capability of our team to deliver complex infrastructure and the strength of our partnerships with global leaders like Microsoft,” Frigerio stated.
The solar PV power plant will generate approximately 720GWh of clean energy annually. The facility achieved its first power generation in November 2024.
Construction of the Walla Walla Solar Farm was managed by Engineering, Procurement, and Construction (EPC) contractor Gransolar, with financing support from multiple institutions, including the Clean Energy Finance Corporation (CEFC), ING, and Export Development Canada. The CEFC committed AU$100 million in senior debt finance for the project’s development.
FRV Australia’s portfolio expansion continues with recent strategic acquisitions and developments.
Earlier in 2024, the company announced the acquisition of the 190MW Axedale Hybrid Solar & Battery Storage Project and commenced construction of the 100MW/200MWh Terang BESS in Victoria.
The company’s operational portfolio includes diverse projects across multiple Australian states.
In Queensland, FRV operates the 125MW Lilyvale and the 2.45MWdc Dalby solar PV power plants, while Victoria hosts the 106MW Winton Solar Farm. New South Wales accommodates several facilities, including the 70MW Goonumbla, 115MW Metz, 56MW Moree, and 90MW Sebastopol solar PV power plants, alongside the newly operational Walla Walla facility.
FRV Australia is a subsidiary of renewables developer FRV, owned by Saudi Abdul Latif Jameel Energy and Canadian pension fund OMERS. The parent company maintains a global presence with operations spanning multiple continents and a diverse renewable energy portfolio.

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NTPC REL Invites Bids For 900 MW Solar PV Project In Madhya Pradesh  SolarQuarter
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A team at Kyushu University has developed a method that may guide photovoltaic technology past persistent efficiency limits. According to a report in pv magazine, the work centers on a quantum process called singlet fission, where a single photon can create two electron-hole pairs.
The researchers paired singlet-fission materials with a specially designed molybdenum-based spin-flip emitter. This combination demonstrated energy conversion in a solution with an effective quantum yield of approximately 130%. The emitter is designed to capture triplet excitons, which are often non-emissive, and convert them into near-infrared light.
The molecular design of the emitter allows for an electron spin flip during light absorption or emission. This enables more efficient harvesting of the multiple excitons generated by singlet fission. The structure of the molecular linker connecting the light-absorbing units is a critical factor, heavily influencing the efficiency and dynamics of the energy transfer process.
Applications in solar cells will require integrating these materials into solid-state systems, a step the researchers note they are actively pursuing. The approach could block certain energy loss pathways in silicon solar cells, allowing for selective extraction of energy from triplet states. Beyond photovoltaics, the method may also enable new quantum technologies and contribute to next-generation quantum material design.
The findings were published in the Journal of the American Chemical Society.
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Boviet Solar Reinforces Position in U.S. Landfill and Brownfield Solar Projects  SolarQuarter
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According to Solar Power World, Geronimo Power has initiated commercial operations at its Dodson Creek Solar Project, located in Highland County, Ohio. The facility has a capacity of 117 megawatts.
Andy Cukurs, the company’s chief operating officer, stated that the project expands the firm’s commitment to Ohio. With this addition, Geronimo Power’s total operational portfolio in the state has reached 675 megawatts, which the company associates with substantial economic benefit over the project lifespan.
During the construction phase, the project’s workforce peaked at 125 individuals. The engineering, procurement, and construction partner for the build was Kiewit Power Constructors. A vice president from Kiewit noted the project’s completion reflects a successful partnership and supports regional clean energy and economic objectives.
The solar installation utilizes Series 7 photovoltaic modules from First Solar. A representative from First Solar indicated that its technology contributes to the project, highlighting domestic manufacturing and economic growth alongside energy needs.
Over two decades of operation, the solar project is expected to generate significant new tax revenue for local county, township, school, and emergency service entities. Separately, Geronimo Power has committed to providing a sum of money to charitable groups and organizations in Highland County through a dedicated fund.
Interactive table based on the Store Companies dataset for this report.
This report provides a comprehensive view of the global solar cells and light-emitting diodes industry, tracking demand, supply, and trade flows across the worldwide value chain. It explains how demand across key channels and end-use segments shapes consumption patterns, while also mapping the role of input availability, production efficiency, and regulatory standards on supply.
Beyond headline metrics, the study benchmarks prices, margins, and trade routes so you can see where value is created and how it moves between exporters and importers worldwide. The analysis is designed to support strategic planning, market entry, portfolio prioritization, and risk management in the global solar cells and light-emitting diodes landscape.
The report combines market sizing with trade intelligence and price analytics. It covers both historical performance and the forward outlook to 2035, allowing you to compare cycles, structural shifts, and policy impacts across countries and regions.
For the global report, country profiles provide a consistent view of market size, trade balance, prices, and per-capita indicators. The profiles highlight the largest consuming and producing markets and allow direct benchmarking across peers.
The analysis is built on a multi-source framework that combines official statistics, trade records, company disclosures, and expert validation. Data are standardized, reconciled, and cross-checked to ensure consistency across time series.
All data are normalized to a common product definition and mapped to a consistent set of codes. This ensures that comparisons across time are aligned and actionable.
The forecast horizon extends to 2035 and is based on a structured model that links solar cells and light-emitting diodes demand and supply to macroeconomic indicators, trade patterns, and sector-specific drivers. The model captures both cyclical and structural factors and reflects known policy and technology shifts.
Each country projection is built from its own historical pattern and the regional context, allowing the report to show where growth is concentrated and where risks are elevated.
Prices are analyzed in detail, including export and import unit values, regional spreads, and changes in trade costs. The report highlights how seasonality, freight rates, exchange rates, and supply disruptions influence pricing and margins.
Key producers, exporters, and distributors are profiled with a focus on their operational scale, geographic footprint, product mix, and market positioning. This helps identify competitive pressure points, partnership opportunities, and routes to differentiation.
This report is designed for manufacturers, distributors, importers, wholesalers, investors, and advisors who need a clear, data-driven picture of global solar cells and light-emitting diodes dynamics.
The market size aggregates consumption and trade data at country and regional levels, presented in both value and volume terms.
The projections combine historical trends with macroeconomic indicators, trade dynamics, and sector-specific drivers.
Yes, it includes export and import unit values, regional spreads, and a pricing outlook to 2035.
The report provides profiles for the largest consuming and producing countries, enabling benchmarking across peers.
Yes, it highlights demand hotspots, trade routes, pricing trends, and competitive context.
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Where Demand Comes From and How It Behaves
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Trade Flows and External Dependence
Price Formation and Revenue Logic
Who Wins and Why
Where Growth and Supply Concentrate
Commercial Entry and Scaling Priorities
Where the Best Expansion Logic Sits
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How the Report Was Built
Largest solar manufacturer globally
Leading monocrystalline silicon producer
Major module and cell producer
High-efficiency cell and module maker
Global manufacturer and project developer
Major player in US and EU markets
Integrated PV product manufacturer
Leading thin-film CdTe manufacturer
World's largest solar cell producer
ABC cell technology leader
Major LED component and display maker
Pioneer and major supplier of LED chips
Historically leading innovator in LED technology
Leading European optoelectronics supplier
High-power LED and automotive lighting
One of world's largest LED chip producers
Major LED packaging and component supplier
Leading Taiwanese LED chip manufacturer
Innovator in WICOP and SunLike technologies
LED components for automotive and IT
IBC cell technology leader
Solar project developer and manufacturer
Integrated PV manufacturer
Historically significant in both fields
Rapidly growing cell and module producer
Solar manufacturing arm of Chint Group
Module manufacturer with US focus
Leading Indian solar manufacturer
LED packaging and lighting solutions
Major LED packaging company
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Tandem Solar Cells- Breaking the SQ Barrier  SolarQuarter
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Solar photovoltaic’s are central to NASA’s Artemis missions, serving as the primary power source for the Orion spacecraft and future Gateway lunar outpost. Orion relies on four large solar array wings, which deploy in space to generate more than 11 kW. That’s enough to power life support, navigation, and communications.
The European Service Module powering Orion features four 7-meter-long solar arrays manufactured by Airbus. These arrays convert sunlight into electricity and maintain energy supply throughout the 10-day Artemis II mission, including the lunar fly-by. They rotate on two axes to track the Sun, ensuring continuous power and charging onboard batteries for periods when the spacecraft is in shadow. Each array contains 15,000 gallium arsenide photovoltaic cells, producing roughly 11.2 kW of power.
Future Artemis missions will use Roll-Out Solar Arrays on the Gateway outpost orbiting the Moon. These flexible arrays are designed to provide reliable power for long-term operations. NASA is also developing vertical deployable solar arrays for lunar surface exploration, optimising sunlight collection at the poles where the Sun remains low on the horizon.
During the Artemis I mission, Orion’s solar arrays has so far exceeded expectations, generating 15% more power than planned, demonstrating the efficiency and resilience of the technology.
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The Dutch research institute has presented what it describes as the world’s first perovskite-based roof tile, achieving up to 13.8% efficiency on standalone modules and 12.4% when installed on a curved surface. The flexible modules were produced using TNO’s experimental roll-to-roll platform,
Image: TNO

The Netherlands Organization for Applied Scientific Research (TNO) has unveiled today a building-integrated photovoltaic (BIPV) tile based on perovskite solar cell technology.
The new product is billed as the world’s first perovskite solar tile.
“This demonstrator is supported by the Province of North Brabant through the project ‘Solar manufacturing industry to Brabant, Solliance 2.0’. Additional funding was received from the European Union’s Horizon Europe programme for the Luminosity project,” TNO said in a statement. “The work was also partly funded by the National Growth Fund programme SolarNL.”
The Dutch research institute partnered with Netherlands-based BIPV specialist Asat BV in deploying 10 cm x 10 cm perovskite solar modules built on flexible foil onto a curved composite roof tile. Testing indicates that bending the modules to fit the curved surface has minimal impact on their performance.
Standalone modules reached energy conversion efficiencies of up to 13.8%, while the modules retained an efficiency of 12.4% after installation on the curved roof tile.
Image: TNO

The perovksite modules were encapsulated with an experimental roll-to-roll manufacturing platform developed by TNO itself. Roll-to-roll manufacturing – similar to the process used in newspaper printing – enables continuous production of solar cells on long rolls of flexible material. The technique is widely seen as a potential pathway to lower production costs and high-volume manufacturing for emerging thin-film technologies such as perovskites.
More technical details about the solar tile were not disclosed. TNO said it will be commercialized by its spinoff Perovion Technologies, which was launched last month. 
TNO’s recent research on perovskite solar cells, includes developing roll-to-roll and spatial atomic layer deposition (SALD) processes for the deposition of functional materials, solar cell layers, and flexible foils.
In July, Solarge, a manufacturer of lightweight silicon PV modules based in the Netherlands, and TNO unveiled a 32 cm x 34 cm lightweight prototype perovskite solar panel.
A month earlier, Japan’s Sekisui Solar Film, part of Sekisui Chemical, the Brabant Development Agency (BOM), which serves the Dutch province of Noord-Brabant, and TNO signed a letter of intent in Osaka, Japan to explore collaboration related to flexible perovskite solar PV module technologies.
As pv magazine has reported, Sekisui Solar Film is developing technology for lightweight, flexible perovskite solar module manufacturing using an advanced roll-to-roll process. It is working on a 100 MW plant in Japan for large-scale production, is undertaking field demonstrations, and signed a perovskite solar-related memorandum of understanding with Slovakia.
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Last updated: April, 2026
Europe Polysilicon Market Size, Share, Trends & Growth Forecast Report By Production Process, By End-User Industry, and By Country (Germany, France, Italy, Netherlands, Spain & Rest of Europe) – Industry Analysis and Forecast, 2026 to 2034
The Europe polysilicon market was valued at USD 4.94 billion in 2025, is estimated to reach USD 5.55 billion in 2026, and is projected to reach USD 13.99 billion by 2034, growing at a CAGR of 12.26% from 2026 to 2034.

Polysilicon represents a critical yet nascent segment within the broader semiconductor and renewable energy supply chains, characterized by high-purity silicon material essential for photovoltaic cells and electronic wafers. Polysilicon serves as the foundational raw material for converting sunlight into electricity and enabling advanced computing capabilities. The European Union currently faces a significant strategic deficit in domestic polysilicon production, relying heavily on imports from Asia and North America to meet its industrial needs. As per Eurostat, the European Union imported approximately 81% of its silicon requirements in recent years, which indicates a profound dependency on external suppliers. This reliance has triggered urgent policy responses under the European Chips Act and the Net Zero Industry Act, which aim to reshore critical manufacturing capacities. According to the International Energy Agency, Europe must significantly expand its clean tech manufacturing base to meet its 2030 climate targets, including a substantial increase in solar photovoltaic deployment to reach 600 GW of total installed capacity. The region is witnessing a resurgence of interest in local production facilities driven by geopolitical tensions and supply chain vulnerabilities exposed during recent global disruptions. The energy-intensive nature of polysilicon production poses unique challenges in Europe, where electricity costs are higher than in competing regions. However, the availability of renewable energy sources offers a potential competitive advantage for producing low-carbon polysilicon. The market is thus at a pivotal juncture where regulatory support, technological innovation,n and investment decisions will determine the future trajectory of domestic supply capabilities.
The aggressive expansion of solar photovoltaic deployment targets across the European Union acts is one of the major factors propelling the growth of the European polysilicon market due to the direct correlation between solar panel installations and raw material demand. The REPowerEU plan aims to accelerate the rollout of renewable energy to reduce dependence on fossil fuels and enhance energy security. As per the European Commission, the EU intends to install 600 gigawatts of solar photovoltaic capacity by 2030, which represents a massive increase from current levels. This ambitious target requires a substantial supply of polysilicon to manufacture the required solar modules. According to SolarPower Europe, the continent added 65.5 gigawatts of new solar capacity in 2024, demonstrating the rapid pace of adoption. Each gigawatt of solar capacity requires approximately 2,500 to 3,000 tons of polysilicon, depending on the technology used. The shift towards higher efficiency monocrystalline panels further increases the quality and quantity of polysilicon needed. Government incentives, such as subsidies and tax credits for residential and commercial solar installations, are accelerating market uptake. The declining cost of solar energy compared to conventional sources makes it an economically attractive option for businesses and households. This sustained growth in downstream demand creates a compelling case for increasing upstream polysilicon production capacity within Europe to secure supply chains. The strategic imperative to localize production aligns with broader industrial policies aimed at reducing import dependency.
The implementation of the European Chips Act and the broader push for semiconductor sovereignty significantly drive demand for electronic-grade polysilicon in Europe, which is further boosting the European polysilicon market growth. This legislation aims to double the EU’s global market share in semiconductors to 20% by 2030, requiring a robust domestic supply of high-purity materials. As per the European Semiconductor Industry Association, the region currently produces approximately 10% of the world’s semiconductors, despite consuming a large portion of them. Electronic-grade polysilicon is the essential precursor for manufacturing silicon wafers used in chips for automotive, aerospace, and consumer electronics. The act seeks to mobilize over 43 billion euros in public and private investment to build new fabrication plants and material supply chains. According to the European Commission, the initiative seeks to mitigate risks associated with supply chain disruptions and geopolitical instability. Major semiconductor manufacturers are announcing new facilities in Europe, which will require consistent supplies of ultra-high purity polysilicon. The automotive sector’s transition to electric vehicles and autonomous driving technologies further amplifies the need for advanced chips. This structural shift in industrial policy creates a stable and growing demand base for local polysilicon producers. The focus on quality and traceability favors domestic suppliers who can meet stringent regulatory and performance standards. This driver underscores the strategic importance of polysilicon beyond just energy applications.
Prohibitive energy costs and carbon intensity concerns act as a major restraint on the Europe polysilicon market, given the energy-intensive nature of production. The Siemens process and fluidized bed reactor methods used to produce polysilicon require vast amounts of electricity and heat to maintain high temperatures and facilitate chemical reactions. As per the International Energy Agency, the production of one kilogram of polysilicon can consume between 50 and 100 kilowatt hours of electricity, depending on the efficiency of the plant. Electricity prices in Europe are significantly higher than in major producing countries like China, where coal-powered energy keeps costs low. According to Eurostat, industrial electricity prices for non-household consumers in the EU remained elevated at an average of €0.1902 per kWh in 2025 due to geopolitical tensions and the transition away from Russian gas. This cost disadvantage makes it difficult for European producers to compete on price with imported polysilicon. Additionally, the carbon footprint of polysilicon production is a critical concern for environmentally conscious buyers and regulators. If the energy source is not renewable,e the resulting polysilicon may not meet the sustainability criteria required for green certifications. The lack of affordable and abundant low-carbon energy infrastructure limits the scalability of domestic production. Companies face a dilemma between maintaining competitiveness and adhering to strict environmental standards. This economic barrier discourages new investments and slows the development of local capacity. Without significant subsidies or access to cheap renewable energy, the European polysilicon industry struggles to achieve cost parity.
The dominance of Asian supply chains and established economies of scale is another significant restraint on the Europe polysilicon market by creating high barriers to entry. China currently controls over 80% of global polysilicon production capacity, benefiting from decades of investment and optimized manufacturing processes. As per the International Renewable Energy Agency, Chinese producers achieve lower costs through vertical integration, large-scale operations, and government support. This market concentration allows Asian suppliers to offer polysilicon at prices that European startups cannot match without substantial financial aid. According to industry analysis, the capital expenditure required to build a competitive polysilicon plant in Europe is significantly higher due to stricter environmental regulations and labor costs. The existing infrastructure in Asia includes dedicated ports, logistics networks, and skilled workforces that reduce operational friction. European companies face long lead times and complex permitting processes when establishing new facilities. The reliance on imported equipment and technology from Asia further increases dependencies. Buyers in Europe are accustomed to the reliability and volume of Asian supplies, making them hesitant to switch to newer local sources. The risk of stranded assets if global prices drop discourages investors from funding European projects. This structural imbalance perpetuates the status quo and limits the growth potential of domestic producers. Overcoming this restraint requires coordinated policy intervention and long-term off-take agreements.
The development of green polysilicon using renewable energy is a significant opportunity for the Europe polysilicon market by differentiating local products through sustainability credentials. European producers can leverage the region’s abundant wind and solar resources to power energy-intensive manufacturing processes, thereby reducing the carbon footprint of the final product. As per the European Environment Agency, the carbon intensity of electricity generation in the EU has decreased to approximately 250 grams of CO₂ equivalents per kilowatt-hour due to the expansion of renewable capacity. Producing polysilicon with low carbon emissions appeals to manufacturers of premium solar modules and electronics who seek to meet strict environmental standards. According to the Solar Manufacturing Leadership Alliance, there is a growing demand for traceable and sustainable supply chains in the photovoltaic industry. Green polysilicon can command a premium price in markets where carbon taxes or border adjustment mechanisms are implemented. The European Union’s Carbon Border Adjustment Mechanism will impose costs on imports with high embedded emissions, creating a competitive advantage for local low-carbon production. Companies that invest in hybrid energy systems and energy efficiency technologies can position themselves as leaders in sustainable manufacturing. Partnerships with renewable energy providers ensure stable and clean power supplies. This opportunity aligns with the EU’s Green Deal objectives and enhances the global reputation of European industry. It allows local producers to carve out a niche market segment that values environmental responsibility over the lowest cost.
The integration with circular economy and recycling initiatives offers a lucrative opportunity for the Europe polysilicon market by recovering valuable silicon from end-of-life products. As the first generation of solar panels reaches the end of their operational life, the volume of waste is expected to surge, creating a secondary source of raw materials. As per the International Renewable Energy Agency, global solar panel waste could reach 78 million tons by 2050, with a significant portion originating from Europe. Recycling technologies can recover high-purity silicon from discarded modules and semiconductor scrap, reducing the need for virgin polysilicon production. According to the European Commission, the circular economy action plan aims to double the EU circularity rate to 24% by 2030, emphasizing the importance of resource recovery in strategic industries. Establishing efficient recycling streams can lower production costs and minimize environmental impact. Companies that develop advanced purification techniques to upgrade recycled silicon to electronic or solar grade can capture significant value. This approach reduces dependency on imported raw materials and enhances supply chain resilience. Regulatory frameworks are increasingly mandating higher recycling rates for electronic waste and photovoltaic modules. Investment in recycling infrastructure creates new business models and revenue streams. The ability to offer certified recycled content appeals to sustainability-focused customers. This opportunity supports the transition towards a closed-loop system for critical materials. It positions European companies at the forefront of sustainable material management.
Complex regulatory permitting and environmental compliance pose a significant challenge to the Europe polysilicon market by delaying project timelines and increasing costs. Establishing new chemical production facilities in Europe involves navigating a labyrinth of environmental impact assessments, safety regulations, and zoning laws. As per the European Court of Auditors, permitting procedures for large-scale industrial projects can involve an average delay of 11 to 17 years compared with original plans, leading to uncertainty for investors. The handling of hazardous chemicals such as trichlorosilane and hydrogen chloride requires strict adherence to safety standards, which adds to operational complexity. According to the European Chemicals Agency, compliance with REACH regulations involves extensive documentation, where the agency conducts completeness checks on approximately 5% of all registration dossiers. Local communities often oppose industrial developments due to concerns about pollution and health risks, leading to legal challenges and delays. The inconsistency in regulatory interpretation across different member states further complicates planning for multinational projects. Companies must allocate substantial resources to manage regulatory affairs and engage with stakeholders. The slow pace of approvals hinders the ability to respond quickly to market demands. This bureaucratic hurdle discourages foreign direct investment and slows the expansion of domestic capacity. Streamlining permitting processes while maintaining high environmental standards remains a critical policy challenge to the European market. Without procedural reforms, the Europe polysilicon market may struggle to attract the necessary capital for growth.
The technological gap and lack of specialized workforce are further challenging the expansion of the Europe polysilicon market by limiting innovation and operational efficiency. Decades of outsourcing have resulted in an erosion of technical expertise and know-how in silicon processing within the region. As per the European Centre for the Development of Vocational Training, approximately 72% of firms in relevant manufacturing sectors reported a shortage of skilled labor in 2025. Competing nations have continuously refined their production technologies, achieving higher yields and lower energy consumption. According to industry experts, European companies may face a steep learning curve when restarting or scaling up polysilicon production. The rapid evolution of deposition and purification technologies requires continuous research and development investment, which is costly and time-consuming. Universities and training institutions need to update curricula to meet the specific needs of the polysilicon industry. The competition for talent with other high-tech sectors, such as pharmaceuticals and automotive, further exacerbates the shortage. Retaining experienced engineers and technicians is difficult due to global mobility and competitive salaries abroad. This human capital deficit hinders the ability to optimize processes and troubleshoot issues efficiently. Collaborative efforts between industry and academia are essential to bridge this gap. Without a robust pipeline of skilled professionals, the European polysilicon industry may struggle to achieve global competitiveness. Addressing this challenge requires long-term strategic investments in education and training.
REPORT METRIC
DETAILS
Market Size Available
2024 to 2033
Base Year
2024
Forecast Period
2025 to 2033
Segments Covered
By Production Process, End-User Industry, and Region.
Various Analyses Covered
Global, Regional and Country-Level Analysis, Segment-Level Analysis, Drivers, Restraints, Opportunities, Challenges; PESTLE Analysis; Porter’s Five Forces Analysis, Competitive Landscape, Analyst Overview of Investment Opportunities
Countries Covered
UK, France, Spain, Germany, Italy, Russia, Sweden, Denmark, Switzerland, Netherlands, Turkey, Czech Republic, Rest of Europe
Market Leaders Profiled
Wacker Chemie AG, OCI N.V., REC Silicon ASA, Tokuyama Corporation, GCL Technology Holdings Limited, Hemlock Semiconductor Operations LLC, Daqo New Energy Corp., Xinte Energy Co., Ltd., Mitsubishi Materials Corporation, Tongwei Co., Ltd., Qatar Solar Technologies, Shin-Etsu Chemical Co., Ltd.
The Siemens (TCS-CVD) process segment held the leading position in the Europe polysilicon market by capturing 86.1% of the regional market share in 2025. This dominance is driven by the technology’s ability to produce electronic-grade and high-purity solar-grade polysilicon with established reliability and quality consistency. The Siemens process has been the industry standard for decades, allowing manufacturers to achieve purity levels exceeding 99.9999999%, which is critical for semiconductor applications. As per the International Technology Roadmap for Semiconductors, over 90% of silicon wafers used in advanced chip manufacturing are derived from polysilicon produced via the Siemens method due to its superior control over impurities. The maturity of this technology means that European chemical engineers possess extensive expertise in optimizing reactor conditions and managing byproducts. According to industry data, the yield efficiency of modern Siemens plants has improved significantly, reducing energy consumption per kilogram of output, although it remains higher than alternative methods. The infrastructure for handling trichlorosilane is well developed in European chemical hubs, such as Ludwigshafen in Germany. Regulatory frameworks in Europe favor proven technologies with known environmental impact profiles, facilitating permitting processes. The ability to scale production while maintaining strict quality standards makes the Siemens process indispensable for high-value applications. Major producers continue to invest in upgrading existing Siemens facilities rather than switching to unproven alternatives. This entrenched position ensures that the Siemens process remains the backbone of the European polysilicon supply chain for the foreseeable future.

However, the fluidized bed reactor process segment is anticipated to record a CAGR of 13.5% over the forecast period, owing to the technology’s significantly lower energy consumption and continuous production capabilities compared to the batch-based Siemens process. The FBR method consumes up to 80% less electricity, which makes it highly attractive in Europe, where energy costs are a major concern. As per the National Renewable Energy Laboratory, the reduced energy intensity of FBR production aligns perfectly with European sustainability goals and carbon reduction targets. The continuous nature of the FBR process allows for higher throughput and lower operational costs, which enhances competitiveness against imported polysilicon. According to industry analysis, several new pilot projects in Europe are exploring FBR technology to produce solar-grade polysilicon specifically for the growing photovoltaic market. The technology is particularly suitable for producing granular polysilicon, which is easier to handle and load into crucibles for monocrystalline silicon pulling. The decreasing cost of silane gas production further supports the economic viability of FBR. European research institutions are collaborating with industrial partners to optimize FBR parameters for higher purity outputs. The potential for integrating FBR plants with renewable energy sources creates a pathway for truly green polysilicon production. This strategic advantage drives investment and innovation in the FBR segment. As energy prices remain volatile, the economic case for FBR strengthens. This technology represents the future of cost-effective and sustainable polysilicon manufacturing in Europe.
The solar photovoltaics segment led the market by accounting for 81.85 of the European market share in 2025. The growth of the solar PV segment in the European market can be credited to the massive deployment of solar energy infrastructure across the continent as part of the REPowerEU strategy. Polysilicon is the fundamental raw material for manufacturing solar cells, which convert sunlight into electricity. As per SolarPower Europe, the European Union installed 65.5 gigawatts of new solar capacity in 2024, requiring thousands of tons of polysilicon. The urgency to replace fossil fuel-based energy sources has accelerated project approvals and investments in solar farms. According to the European Commission, the target of 600 gigawatts of solar capacity by 2030 necessitates a sustained and growing supply of polysilicon. The decline in solar module prices has made solar energy the cheapest source of electricity in many regions, driving widespread adoption. Residential, commercial, and utility-scale projects all contribute to this demand. The shift towards high-efficiency monocrystalline panels increases the quality requirements for polysilicon but also stabilizes demand for premium grades. Government subsidies and feed-in tariffs provide financial incentives for developers. The long-term nature of solar assets ensures stable demand over decades. The integration of solar with storage systems further enhances its viability. This segment’s dominance is reinforced by policy mandates and economic competitiveness. The scale of the energy transition makes solar the primary driver of polysilicon consumption.
On the other hand, the electronics and semiconductors segment is experiencing the fastest growth and is estimated to register a CAGR of 8.4% over the forecast period due to the European Chips Act and the increasing digitization of industrial and consumer applications. Electronic-grade polysilicon is essential for producing silicon wafers used in integrated circuits, microprocessors, and memory chips. As per the European Semiconductor Industry Association, the region currently accounts for roughly 10% of global semiconductor production and is investing heavily to increase this share. The automotive industry’s transition to electric vehicles requires significantly more chips for power management and autonomous driving features. According to the European Automobile Manufacturers Association, a modern battery electric vehicle can require more than twice the value of semiconductors compared to a conventional internal combustion engine car. The rollout of fifth-generation telecommunications networks also drives demand for high-performance chips. Data centers and artificial intelligence applications require advanced processors that rely on ultra-pure silicon. The strategic imperative to secure supply chains has led to the construction of new fabrication plants in Europe. These facilities require consistent supplies of high-quality electronic-grade polysilicon. The higher value-added nature of this segment allows for better margins despite lower volumes. Technological advancements in chip design continue to push the boundaries of material purity. This segment represents the high-tech frontier of polysilicon utilization. The focus on sovereignty and innovation ensures sustained growth.
Germany dominated the polysilicon market in Europe in 2025 with 27.7% of the regional market share in 2025. The dominance of Germany in the European market is attributed to the country’s robust chemical industry and ambitious energy transition policies. Germany is home to major chemical companies with expertise in silicon processing and purification. As per the German Federal Ministry for Economic Affairs and Climate Action, the country aims for a minimum generation share of 80% from renewable energy by 2030, driving significant solar deployment. The automotive sector’s demand for semiconductors also supports polysilicon consumption. According to the German Semiconductor Industry Association, billions of euros are being invested in new fabrication facilities, such as the 3 billion euros Bosch is investing in its semiconductor business by 2026. The presence of research institutes fosters innovation in material science. Germany’s central location facilitates distribution to neighboring markets. The government’s subsidy programs encourage domestic production and research. The strong regulatory framework ensures high environmental standards. The focus on sustainability aligns with green polysilicon production. This combination of policy, industry, and expertise solidifies Germany’s leadership. The country’s industrial base provides a skilled workforce. The commitment to technological sovereignty drives strategic investments. Germany remains the pivotal hub for polysilicon demand and innovation in Europe.
France accounted for a significant share of the Europe polysilicon market in 2025. The growth of France in the European market is driven by its nuclear energy heritage and growing solar ambitions. France has a strong chemical industry capable of supporting polysilicon production and processing. As per the French Ministry of Ecological Transition, the country plans to reach 100 GW of solar capacity by 2050, creating substantial demand for raw materials. The semiconductor sector in France is expanding with new investments in chip manufacturing. According to the French Semiconductor Industry Cluster, the government is supporting the development of a complete value chain. The availability of low-carbon nuclear electricity offers a competitive advantage for energy-intensive processes. France’s research institutions are leaders in material science and purification technologies. The strategic partnership with other European nations enhances supply security. The regulatory environment supports sustainable industrial practices. The focus on energy sovereignty drives policy decisions. France’s industrial heritage provides a skilled workforce. These factors contribute to a robust and growing market. The emphasis on innovation attracts international collaboration. France is positioning itself as a key player in the European polysilicon landscape.
Italy is expected to showcase a promising CAGR in the Europe polysilicon market during the forecast period, owing to a strong solar installation record. The country has one of the highest solar irradiation levels in Europe, making it ideal for photovoltaic deployment. As per the Italian National Agency for New Technologies, Energy and Sustainable Economic Development, renewable sources covered 41% of national electricity demand in 2025, with solar power generation surging by 25% that year. The government’s incentives have stimulated residential and commercial solar adoption. According to industry data, Italy is a significant importer of solar modules, driving indirect polysilicon demand. The semiconductor industry in Italy is niche but focused on high-value analog chips. The country’s manufacturing sector requires reliable supplies of electronic components. Italy’s strategic location in the Mediterranean facilitates trade. The focus on energy independence has accelerated renewable projects. The regulatory framework is evolving to support local production. The collaboration with European partners enhances supply chain resilience. The cultural emphasis on sustainability supports green initiatives. Italy’s market is driven by both energy and industrial needs. The potential for local manufacturing is being explored. Italy remains a significant contributor to regional demand.
The Netherlands is predicted to hold a notable share of the Europe polysilicon market over the forecast period, owing to a focus on trade and logistics. The Port of Rotterdam serves as a key entry point for imported polysilicon and semiconductor equipment. As per the Dutch Ministry of Economic Affairs and Climate Policy, the country is a hub for high-tech systems and materials, with the semiconductor manufacturing equipment market projected to reach 3,442.2 million USD by 2033. The presence of major semiconductor equipment manufacturers drives indirect demand. According to the Holland High Tech association, the sector is a key contributor to the economy, with the front-end process segment acting as the largest revenue generator in 2025. The Netherlands is investing in research and development for next-generation materials. The country’s open economy facilitates international collaboration. The focus on sustainability drives interest in green polysilicon. The regulatory environment is business-friendly and innovative. The strong logistics network ensures efficient distribution. The Netherlands plays a critical role in the European supply chain. The emphasis on innovation supports technological advancement. This strategic position enhances its market significance. The country acts as a gateway for materials entering the EU. The Netherlands is integral to the regional ecosystem.
Spain is estimated to register a healthy CAGR in the Europe polysilicon market over the forecast period owing to its abundant solar resources. The country has some of the best conditions for solar energy generation in Europe. As per the Spanish Institute for Diversification and Saving of Energy, the National Integrated Energy and Climate Plan foresees exceeding 76 GW of solar power by 2030. The government has approved numerous large-scale solar projects. For instance, Spain is attracting investment in module manufacturing and has recorded over 32 GW of installed solar power by the end of 2024. The semiconductor sector is smaller but growing, with a focus on power electronics. The availability of land and sunshine supports utility-scale installations. The regulatory framework has been streamlined to accelerate permits. The focus on renewable energy exports enhances market potential. Spain’s integration with the European grid supports stability. The cultural shift towards sustainability drives adoption. The market is poised for significant growth in the coming years. Spain’s natural advantages make it a key player. The country is becoming a major consumer of polysilicon for solar applications. Spain’s role in the energy transition is expanding rapidly.
The competition in the Europe polysilicon market is characterized by a limited number of specialized producers competing against dominant Asian manufacturers. European players differentiate themselves through high-quality standards, sustainability credentials,s and proximity to key customers rather than price alone. The market is influenced heavily by regulatory frameworks such as the European Chips Act and REPower, the EU, which encourage local production. Companies compete by investing in advanced technologies like fluidized bed reactors to reduce energy consumption and carbon footprints. Strategic partnerships with downstream industries ensure stable demand and supply chain integration. The high barrier to entry due to capital intensity and technical expertise limits new competitors. Established firms leverage their existing infrastructure and chemical engineering expertise to maintain advantages. Innovation in purification processes and waste management is critical for compliance and efficiency. The focon electronic-grade polysilicon offers higher margins but requires stringent quality control. Solar-grade producers face intense price competition from imports, necessitating cost optimization. Collaboration with research institutions drives technological advancements. The geopolitical push for supply chain sovereignty creates opportunities for local growth. Adaptability to regulatory changes and energy market dynamics is essential for sustaining competitive advantage in this strategic sector.
Some of the companies that are playing a dominating role in the global Europe Polysilicon Market include
Key players in the Europe polysilicon market primarily employ strategies focused on sustainability and supply chain localization. Companies are investing heavily in renewable energy sources to power energy-intensive production processes, thereby reducing carbon emissions. This approach aligns with strict European Union environmental regulations and enhances product appeal to eco-conscious customers. Participants are also forming strategic partnerships with downstream manufacturers such as solar module and semiconductor producers to secure long-term off-take agreements. This strategy ensures stable demand and mitigates market volatility risks. Diversification of production technologies, including the adoption of fluidized bed reactors,s helps improve efficiency and lower costs. Companies are also engaging in research and development to enhance purity levels and yield rates. Lobbying for government support and subsidies under initiatives like the European Chips Act is another common strategy. These combined efforts enable firms to navigate regulatory complexities, maintain competitiveness,s and capitalize on the growing demand for locally produced sustainable polysilicon in Europe effectively.
This research report on the europe polysilicon market is segmented and sub-segmented into the following categories.
By Production Process
By End-User Industry
By Country

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A cookout honoring contractors for the Project Magnolia solar operation alongside Highway 8 West was held last week at the Aberdeen Main Street Depot.

A cookout honoring contractors for the Project Magnolia solar operation alongside Highway 8 West was held last week at the Aberdeen Main Street Depot.
ABERDEEN – A cookout coordinated by Aberdeen Main Street March 26 officially welcomed workers associated with the construction of a 160-megawatt solar development near the intersection of Watkins Lane and Highway 8, between Gibson, Prairie and Egypt.
Nashville-based Silicon Ranch shared details of the project – termed as Project Magnolia – last spring during a community meeting at the Monroe County Extension Office. The project will encompass roughly 1,450 acres and was stated as being a $240 million investment during the community meeting.
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An IEA-PVPS report finds that solar power above 60° North is not only viable but rapidly expanding, driven by cold-climate performance gains, bifacial technologies, and rising energy security needs. While challenges like extreme seasonality, snow, permafrost, and scarce data remain, Arctic PV is emerging as a critical—and technically distinct—frontier for global solar deployment.
A snow-covered pv system
Image: Firat University, Case Studies in Thermal Engineering, CC BY 4.0

For decades, the Arctic has been dismissed as a solar dead zone. Long winters, heavy snow loads, and extreme cold seemed to rule out photovoltaics as a serious energy option for communities above the 60th parallel. A new report from the IEA Photovoltaic Power Systems Programme (Task 13) challenges that assumption, arguing that solar PV is not just viable in the Arctic, but increasingly essential to the region’s energy security.
The 77-page report, titled “Photovoltaics and Energy Security in the Greater Arctic Region“ and authored by researchers across the US, Canada, Sweden, Norway, Denmark, and Finland, arrives at a moment when Arctic PV capacity is growing at rates of 46 to 145% per year in some regions. Total installed capacity above 60°N now stands at roughly 1,400 MWp as of 2023 — still a tiny fraction of global capacity, but the trajectory is unmistakable.
First and foremost, when planning a PV project at higher latitudes, the starting point must be considering seasonality: near the summer solstice in June, high-latitude regions receive large amounts of solar radiation. In contrast, near the winter solstice in December high-latitude regions receive little solar radiation (or not at all above the Arctic Circle at 66.56°N).
Bridging the gap between the intensity of summer and the scarcity of winter is the defining integration challenge for Arctic PV systems, and one that is addressed at length throughout the report.
The report’s central argument rests on a counterintuitive insight: cold is not the enemy of solar panels. It’s often an advantage.
Silicon PV cells produce more power at lower temperatures because the semiconductor bandgap widens, boosting voltage. The report cites data from a south-facing system in Alaska, where the median module temperature during daylight hours was just 15°C, which is far below the 25°C standard test condition at which panels are rated. In cold climates, modules may also degrade more slowly, with a median performance loss rate of just -0.37%/year measured across 16 systems above 59°N, compared to -0.75%/year for systems across the continental United States.
Snow, meanwhile, is a double-edged factor. It can block panels and stress racking systems, but it also dramatically raises ground albedo, potentially boosting the rear-side gain of bifacial modules to levels unseen in lower latitudes. The report notes that bifacial gain increases with latitude precisely because of long-lasting snow cover, increased diffuse light, and low solar elevation angles. The recommendation is clear: bifacial modules should be the default technology choice for Arctic deployments.
One of the report’s more striking practical findings concerns system orientation. East-west facing vertical bifacial arrays show particular promise above 60°N. Their near-90° tilt sheds snow naturally, avoiding the extended zero-production periods that plague tilted fixed-tilt systems in winter. They also produce power earlier and later in the day, better matching electricity demand curves and reducing the “cannibalization effect” that depresses midday wholesale prices.
Field data from a vertically-mounted agrivoltaic system in Sweden (59.55°N) illustrates the point. In December 2023, the vertical system outperformed its south-facing fixed-tilt neighbor on 28 out of 31 days, averaging 6.1 kWh/kW/month versus just 1.32 kWh/kW for the tilted array. On 14 of those days, the tilted system produced nothing at all due to snow coverage.
However, there is one section of the report that deserves special attention from developers: the discussion of frost heave and permafrost. Two detailed case studies — a 699 kW system in Luleå, Sweden, and a 563 kW array in Fairbanks, Alaska — document costly structural failures caused by ground freezing that installers failed to adequately anticipate.
In Luleå, perforated C-profile piles allowed the clay substrate to grip the racking, causing visible deformation within the first winter. The entire racking system had to be replaced with deeper, non-perforated piles. In Fairbanks, helical piles in a historically filled slough zone were jacked out of the ground and sank, breaking modules and requiring partial disassembly and reinstallation at 5.5 m depth.
The lesson from both cases: standard geotechnical surveys designed for construction and road work are not adequate for PV racking in frost-prone soils. Developers must commission surveys with PV-specific methodology, and should factor in the less obvious effect of the array itself.
In permafrost regions, the problem compounds further. Monitoring data from an array in Kotzebue, Alaska, shows that snow drifts accumulating behind solar rows are warming the permafrost, potentially destabilizing foundations over time. According to the report, solar arrays in these environments can act as snow fences, and the long-term structural consequences remain poorly understood.
For developers seeking to bankroll Arctic projects, the report identifies a persistent obstacle: the almost total absence of high-quality irradiance data above 60°N. Geostationary satellites degrade in accuracy beyond 65° latitude. Polar-orbiting satellites struggle to distinguish snow from cloud cover. Ground-based measurement networks are sparse, and those that exist face unique maintenance challenges, such as rime ice forming on radiometer domes, malfunctioning tracker mechanisms, and limited site access in winter.
As a result, energy yield assessments for Arctic projects carry substantially higher uncertainty than those at lower latitudes, which leads to complicated financing. The authors call for investment in heated, ventilated measurement instruments, rigorous maintenance protocols, and expanded ground-station networks across high-latitude regions.
The country-level data in the report paints a picture of a region moving fast despite the obstacles. Norway’s PV capacity above 60°N reached 173 MW in 2023, growing at 145% annually, with the country targeting 8 TWh of solar generation by 2030. Finland crossed 1 GW nationally and projects up to 9.1 GW by 2030. Arctic Sweden’s installed base hit 350 MW with a five-year mean growth rate of 58%/year, and utility-scale ground-mounted parks are now entering the permitting pipeline at gigawatt scale.
In North America, the story is different but equally dynamic. Alaska’s total PV capacity reached roughly 30 MW at end-2023, with the largest single facility at 8.5 MW and a 45 MW project announced for the Railbelt grid. More than 150 isolated diesel-dependent rural microgrids are receiving funding for solar-plus-storage systems, with some already capable of 100% renewable operation during favorable conditions.
The overarching message of this report is that the Arctic solar market is real, it is growing, and it has specific technical requirements that the global PV industry has not yet fully addressed. Bifacial vertical arrays, PV-specific geotechnical standards, Arctic-grade snow loss modeling, and expanded irradiance datasets are not nice-to-haves, but rather the foundations on which a credible high-latitude solar industry must be built.
Author: Ignacio Landivar
To access the full “Photovoltaics and Energy Security in the Greater Arctic Region,” you can download it here.
IEA PVPS Task 13 focuses on international collaboration to improve the reliability of photovoltaic systems and subsystems. This is achieved by collecting, analyzing, and disseminating information about their technical performance and durability. This creates a basis for their technical evaluation and develops practical recommendations to increase their electrical and economic efficiency in various climate regions.
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Author: PPD Team Date: April 7, 2026
Waaree Energies Limited has commenced operations at a new solar module manufacturing facility in Samakhiali, Kutch, Gujarat, with a total annual capacity of 3,000 MW. The plant began production at 10:00 am on April 6, 2026, according to a regulatory filing of the same date.
The facility is operated by Sangam Solar One Private Limited, a wholly owned subsidiary of Waaree Energies Limited. It includes four production lines, each with an annual capacity of 750 MW, taking the total installed capacity at the site to 3,000 MW. The plant is located in the industrial zone of Samakhiali in Kutch district. 
Incorporated in December 1990 and headquartered in Mumbai, Waaree Energies Limited is India’s largest manufacturer and exporter of solar photovoltaic (PV) modules. The company has a global solar module manufacturing capacity of 22.77 GW, including 20.17 GW in India and 2.6 GW in the United States, along with 5.4 GW of solar cell capacity. Its operations cover module and inverter manufacturing, engineering, procurement and construction (EPC) services, battery energy storage systems (BESS), green hydrogen, and broader energy infrastructure.
Author: PPD Team Date: March 24, 2026 Power Grid Corporation of India (PGCIL) has increased its capital expenditure (capex) guidance for FY26 to Rs 35,000 crore and has already surpassed the target, reporting actual capex of Rs 35,540 crore as of March 22, 2026, or about 102% of the revised estimate. The company had initially set a capex target of Rs 28,000 crore at the start of FY26. This was revised to Rs 32,000 crore…
Read More Power Grid raises FY26 capex to Rs 35,000 crore, exceeds target
Author: PPD Team Date: February 26, 2025 Assam Power Generation Corporation Limited (APGCL) and Oil India Limited (OIL) have established a joint venture (JV) named APGCL OIL Green Power Limited to develop renewable energy projects in Assam. The JV will plan, develop, construct, own, and operate various renewable energy projects, including solar, wind, small hydro, and biomass. It will also focus on green hydrogen infrastructure, covering production, storage, transportation, and distribution. Additionally, the company will engage…
Read More APGCL and Oil India form JV for renewable energy projects
Author: PPD Team Date: November 4, 2024 Thiruvananthapuram Municipal Corporation has been awarded the prestigious Global Award for Sustainable Development in Cities, a recognition led by the United Nations Human Settlements Programme (UN Habitat) and the Shanghai Municipality.  This award celebrates significant achievements by cities in implementing sustainable urban development under the new urban agenda. Thiruvananthapuram is the first Indian city to receive this honour, joining four other award-winning cities: Agadir (Morocco), Melbourne (Australia), Doha…
Read More Thiruvananthapuram wins UN Habitat Global Award for Sustainable Development in Cities
Author: PPD Team Date: January 12, 2026 India has commenced trial runs of its first hydrogen-powered train, a significant step toward cleaner rail transport. The testing is being conducted by the Research Designs & Standards Organisation (RDSO) on the Jind-Sonipat section of Northern Railway. The train, developed by the Integral Coach Factory in Chennai, is undergoing oscillation tests and Emergency Brake Distance trials as part of a comprehensive evaluation. According to Northern Railway officials, the…
Read More India begins trials of first hydrogen powered train
Author: PPD Team Date: April 6, 2026 Resonia has commissioned the 765 kV double-circuit Fatehgarh–Beawar transmission corridor, spanning approximately 700 circuit kilometres, along with associated bays and the 765/400 kV Beawar Substation. The project is designed to enable high-capacity evacuation of renewable energy from generation-rich regions to the grid. The Beawar substation is configured as an extra-high voltage node with substantial transformation and reactive power management capacity. It includes two banks of inter-connecting transformers rated…
Read More Resonia commissions 765 kV Fatehgarh–Beawar transmission corridor
Author: PPD Team Date: March 5, 2025 Rajasthan Rajya Vidyut Utpadan Nigam Limited (RVUNL) and Singareni Collieries Company Limited have signed a memorandum of understanding (MoU) to enhance power generation and supply, supporting the state’s goal of energy self-reliance and uninterrupted daytime electricity for farmers by 2027. The agreement aims to accelerate renewable energy development in Rajasthan by strengthening solar capacity and ensuring the timely execution of projects.  As part of this initiative, the state…
Read More Rajasthan partners with Telangana for energy expansion
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Australia’s National Electricity Market (NEM) achieved a new minimum operational demand record of 9,666MW on 4 October, marking a 4% decrease from the previous record set during Spring 2024.
According to the Australian Energy Market Operator (AEMO), the milestone occurred at 12:00 during mild to warm temperatures and clear skies across the NEM’s states. Operational rooftop solar capacity reached an estimated 15,091MW and met 61% of underlying demand at the time of the record.
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The distributed solar output demonstrates the growing influence of behind-the-meter generation on grid operations and system demand patterns. It is also worth noting that Australia’s installed rooftop solar PV capacity recently surpassed 26GW.
Renewable energy sources supplied 75.5% of total generation when the minimum demand record was established. Rooftop solar PV systems contributed 57.5% of total generation, while grid-scale solar provided 12.4% and wind generation added 5.6% to the renewable energy mix, as shown in the graph below.
Minimum operational demand represents the lowest point of electricity demand that large-scale generators must meet after accounting for rooftop solar and other distributed energy resources.
The metric has become increasingly important for system operators managing grid stability as distributed generation capacity expands across the NEM.
The 15GW of rooftop solar recorded during the minimum demand period reflects the substantial growth in distributed solar PV installations across Australia’s eastern states. AEMO forecasts renewable energy generation will reach 229TWh by 2035, with distributed solar expected to play an increasingly significant role in meeting electricity demand.
Meanwhile, the declining minimum demand trend presents opportunities and challenges for grid operators. Lower operational demand reduces the need for large-scale generation during peak solar production periods, but as conventional generators reduce output, new requirements for system services, including frequency control and voltage support, are created.
Australia’s electricity system has experienced record-breaking growth in renewables and energy storage assets, with the integration of variable renewable energy sources requiring enhanced grid management capabilities.
However, this rapid rollout of renewable energy generation has meant that grid-scale solar facilities have faced operational challenges during periods of high renewable energy output, with curtailment levels exceeding 25% in 2024 as system operators manage oversupply conditions.
The combination of distributed and utility-scale solar generation during minimum demand periods illustrates the coordination required between renewable energy sources.
You can explore September’s solar generation performance in our latest NEM data spotlight, with all entries available to PV Tech Premium subscribers.

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The Electrical Contractors’ Association of South Africa (ECA SA) has intensified its warning against allowing Electrical Testers for Single Phase to sign off on solar photovoltaic installations, while also calling for stricter verification of installer credentials across the market.
The association maintains that solar PV systems and DC coupled technologies fall outside the technical scope of single-phase testers. It cautions that improper certification not only introduces significant safety risks but may also invalidate insurance claims and expose project owners to legal liabilities.
Under current regulations, only registered Installation Electricians or Master Installation Electricians are authorised to issue a Certificate of Compliance for solar PV systems. Although Electrical Testers for Single Phase may assist under supervision, they are not permitted to certify such installations.
Related news: PVTRANSACT is powering connections: South Africa’s go to marketplace for new and used solar PV equipment 
This position is supported by major supply authorities including Eskom and the City of Cape Town, both of which prohibit single phase testers from approving PV systems.
All installations must comply with SANS 10142 to ensure legal validity, particularly in property transactions. Grid tied systems must also be registered as Small Scale Embedded Generators with local municipalities to avoid penalties and ensure compliance.
The ECA SA highlights that non compliant sign off can result in denied insurance claims, illegal system operation and heightened safety risks, including fire hazards, voltage instability and back feeding into the national grid.
In addition to certification concerns, the association is urging developers, businesses and homeowners to actively verify the credentials of solar installers before project commencement.
To verify a solar installer in South Africa, clients should request the installer’s registration card issued by the Department of Employment and Labour as well as a valid wireman’s license. These credentials should then be confirmed with the relevant Provincial Chief Inspector to ensure authenticity and scope of qualification.
Installers must be registered electrical contractors and are legally required to provide proof of registration upon request. Clients are advised to confirm that the installer holds the appropriate license classification, such as Installation Electrician or Master Installation Electrician, aligned with the complexity of the work.
Further verification should include confirming registration with the Bargaining Council for the Electrical Industry, which governs compliance within the sector. As an additional layer of assurance, project stakeholders may check whether the installer is accredited under the SAPVIA PV GreenCard programme, an industry backed quality and compliance initiative.
The ECA SA is currently engaging with the Department of Employment and Labour regarding interpretations that may suggest broader sign off authority. However, it maintains that ensuring public safety and protecting infrastructure requires strict adherence to established qualification standards and verification processes across South Africa’s rapidly growing solar sector.
Author: Bryan Groenendaal
 






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Australia has opened registrations for Capacity Investment Scheme (CIS) Tender 7, which targets 5GW of renewable energy generation capacity across the National Electricity Market (NEM).
The tender represents the latest round in Australia’s flagship renewable energy support mechanism, administered by AusEnergy Services Limited (ASL) on behalf of the Australian government. Bids opened yesterday (14 October) and will close on 9 December 2025.
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CIS Tender 7 seeks renewable energy generation projects that can deliver long-term revenue support through the government’s capacity investment framework, with successful proponents receiving Capacity Investment Scheme Agreements (CISAs).
These agreements provide revenue certainty by underwriting projects against agreed-upon revenue floors and ceilings, helping to attract investment by mitigating financial risk for developers. The scheme offers both generation and storage support, with successful projects receiving capacity payments that complement wholesale electricity market revenues.
The 5GW target spans multiple states and territories within the NEM. According to the indicative timeline published by ASL, successful bidders will be announced in May 2026.
The opening of Tender 7 forms part of the Australian government’s broader renewable energy acceleration strategy. The Department of Climate Change, Energy, the Environment and Water announced four new CIS tenders for 2025, including this NEM generation round and a subsequent dispatchable capacity tender scheduled to open in late November.
The tender follows the success of CIS Tender 4, which awarded 6.6GW of renewables across 20 projects, exceeding its 6GW target. That round proved highly competitive, attracting 84 bids representing 25.6GW of capacity, more than four times the available allocation.
Solar projects dominated Tender 4 outcomes, with 12 of the 20 successful projects featuring utility-scale solar PV. Eleven of these solar projects included battery energy storage systems, reflecting the growing trend toward hybrid renewable energy developments that can provide dispatchable capacity to the grid.
The tender guidelines specify that projects must demonstrate technical and financial capability to deliver the proposed capacity within specified timeframes. Eligible technologies include solar, wind and hybrid renewable energy systems, with battery storage components eligible for additional support under the scheme’s storage provisions.
The CIS scheme’s success has prompted discussions about its role in Australia’s transition to a renewable energy-dominated grid.
However, policy debates continue regarding the program’s long-term future. Some industry stakeholders have suggested that clean energy subsidies should be replaced with market-based incentives from 2030, as the renewable energy sector matures and grid integration challenges evolve.
For more information about the tender process and requirements, interested parties can access the full tender guidelines and registration details through the ASL tender portal.

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Aroma Solar Starts 1.2 GW TOPCon Module Plant In Northern India Photograph: (Archive)
Aroma Solar, the renewable energy arm of agricultural exporter Aroma Agrotech Pvt. Ltd., has begun operations at a 1.2 gigawatt (GW) solar module manufacturing facility in Karnal, marking the launch of what the company said is northern India’s first fully automated, AI-driven production line based on TOPCon technology.
The plant has started producing TOPCon modules with power ratings of 620–635 watts and an efficiency of up to 23.51%. Aroma Solar said the facility is built around automated and AI-enabled manufacturing processes aimed at improving production precision and module consistency. The production line uses robotic automation and artificial intelligence-based quality verification to standardise cell placement and lamination, two stages in module manufacturing where defects can emerge over time.
“India’s solar sector is entering a phase where quality is the core,” said Mayank Garg, Chief Executive Officer (CEO) of Aroma Solar. “To deliver that quality, we have installed North India’s first fully automated line from Chinese equipment supplier SC and are sourcing exclusively Tier-1 raw materials.”
“By combining the precision of artificial intelligence with the critical oversight of human expertise, we ensure consistency in every module,” he added. The company said the modules are designed for utility-scale and commercial solar projects across India, offering Tier-1 grade performance and bankability.
Following the commissioning of the 1.2 GW facility, Aroma Solar said it is planning further capacity expansion and is evaluating entry into solar cell and wafer manufacturing to increase vertical integration and strengthen its supply chain.
Aroma Solar is headquartered in Karnal, Haryana, and manufactures solar modules using AI-integrated automation systems and TOPCon technology. The company is a subsidiary of Aroma Agrotech Pvt. Ltd., a Government of India-recognised Four-Star Export House, and has also expanded into EPC installations and independent power producer (IPP) projects.
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Australia’s utility-scale solar PV and wind assets delivered a combined 5TWh of generation in February 2026, marking an 11% increase from the 4.5TWh recorded in the same month last year.
According to David Dixon, a senior analyst at Rystad Energy, Western Australia emerged as a standout performer for wind generation, while utility solar assets demonstrated strong performance across multiple states.
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For instance, utility-scale solar PV assets demonstrated strong performance across New South Wales, Victoria and Western Australia during February.
Sun Energy’s Merredin Solar Farm in Western Australia led the utility PV rankings with 41.2% AC capacity factor, followed by Potentia Energy and Synergy’s Greenough River Solar Farm, also in Western Australia, at 38% AC capacity factor.
CIMIC Group’s Glenrowan Solar Farm in Victoria ranked third with a 37.2% AC capacity factor.
The distributed performance across multiple states reflects the maturing utility-scale solar sector’s geographic diversification, helping to mitigate some of the challenges from curtailment, which exceeded 7TWh in 2025 across the National Electricity Market (NEM).
The month also witnessed significant market consolidation, with Aula Energy becoming the second-largest owner of operational utility-scale solar capacity in Australia following its acquisition of Lightsource bp’s operating solar PV power plants.
The February figures come as Australia’s NEM continues to experience significant structural changes, with pricing volatility reaching new extremes while renewable energy sources increasingly dominate the generation mix. You can find out more in our recent NEM Data Spotlight for February 2026 (Premium access).
The month’s performance builds on the historic achievement of clean energy overtaking coal, as Australia’s NEM delivered a record 51% of renewables.
Western Australia claimed all three top positions for wind asset performance in February, with Potentia Energy and Synergy’s Warradarge Wind Farm leading the field at 60.5% capacity factor. APA Group’s Badgingarra Wind Farm followed with 55.6% capacity factor, while Alinta Energy and RATCH-Australia’s Yandin Wind Farm rounded out the top three at 53.9% capacity factor.
The strong Western Australian performance contributed to February 2026 setting new monthly wind generation records across all states except Tasmania and Victoria.
At the state level, New South Wales claimed the top spot for combined utility solar and wind generation, delivering 1,470GWh comprising 617GWh from wind and 853GWh from utility PV assets.
February’s renewable energy milestone coincided with continued structural changes in Australia’s electricity generation mix.
NEM gas generation declined to 506GWh during the month, while battery discharge surged to 245GWh, a 266% increase from the 67GWh recorded in February 2025.
The battery storage expansion reflects the ongoing deployment of utility-scale storage capacity, with 8.2GW now at various stages of commissioning or operation across the market.
This rapid growth in storage capacity is helping to address grid stability challenges while supporting higher levels of renewable energy penetration.
Despite the renewable energy surge, coal generation maintained significant output during February, with Bluewaters Power Station in Western Australia achieving the highest capacity factor at 96.6%.
CS Energy’s Kogan Creek Power Station followed at 87.4% capacity factor, while Alinta Energy’s Loy Yang B Power Station in Victoria recorded 87% capacity factor.

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Greek Utility PPC Group has completed construction of a 2.13GW solar PV portfolio in northern Greece, which it described as “the largest cluster of photovoltaic projects in Europe”.
The portfolio sits on former lignite mines and consists of 14 projects, the capacity of which will account for 6% of Greece’s total annual electricity consumption. The largest single project in the portfolio is the 550MW Phoebe plant near the village of Pontokomi; the portfolio also consists of the 940MW Amyntaio photovoltaic complex, which covers four villages in the area, and was developed in tandem with German energy company RWE.
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The utility has also invested in battery energy storage systems (BESS) in the region, with PPC describing the technology as “the next step” in its development of the area. The utility already operates 98MW/196MWh of batteries in Western Macedonia, and has started construction at a 50MW/200MWh battery facility at the Amyntaio complex, at which it expects to begin commercial operations “in the coming months”. The utility has also secured regulatory approval for two pumped storage units.
“Western Macedonia in northern Greece is becoming the country’s new green energy hub, hosting the largest photovoltaic cluster in Europe, developed on former lignite mine sites, alongside storage units that ensure optimal use of generated energy and contribute to system stability,” said PPC Group deputy CEO for RES Konstantinos Mavros.
Mavros added that the contribution of thermal energy to Greece’s energy mix has fallen from 67% in 2019 to 50% today, and the country’s National Energy and Climate Plan (NECP) aims for this share to decrease further.
The NECP aims for renewable energy to account for 81% of the country’s electricity capacity by the end of the decade, with operational solar PV capacity expected to almost double between 7GW in operation in 2023 to 13.5GW in operation by 2030. Should Greece realise this target, solar PV will account for 37% of total energy capacity.
Leaders in the European solar sector are turning their attention to this year’s SolarPlus Europe event, to be held in Italy on 15-16 April by PV Tech publisher Solar Media. Information about the event, including the full agenda and options to purchase tickets are available on the official website.

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Aggreko has finalised a 15-year power purchase agreement (PPA) with international mining company Harmony Gold for the Eva Copper Mine Project in Northwest Queensland, paving the way for the development of what the two companies claim will be Australia’s largest off-grid hybrid renewable energy facility.
The PPA, with a minimum term of 15 years, will see Aggreko, a Scotland-headquartered provider of power generation equipment and energy control systems, build, own, and operate the renewable energy hybrid power facility to support the construction and operation of the new copper mine owned by Harmony.
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According to the companies, the hybrid power facility will integrate a 104MVA low-emissions thermal generation plant with a 118MWp solar PV power plant alongside a co-located 250MWh battery energy storage system (BESS).
George Whyte, Aggreko AusPac managing director, said the project highlights Aggreko’s growing expansion in Australia’s hybrid and renewable energy landscape.
“This is a milestone for Aggreko and Australian mining,” Whyte said.
“The scale of this renewable energy hybrid power station and the level of integration between solar, battery storage and thermal generation set a new benchmark for off-grid energy. Our long-term agreement reflects Aggreko’s commitment to partnering with industry to deliver innovative, lower-emission energy solutions that are both commercially and operationally robust.”
The Eva Copper Mine Project represents the latest development in Australia’s rapidly evolving off-grid mining energy sector, where renewable energy hybrid systems are increasingly becoming the standard for new operations.
Indeed, the announcement follows several notable developments in the sector, including Pacific Energy’s completion last year of a 61MW solar-wind hybrid system to power the Tropicana gold mine in Western Australia, which commenced commercial operations in February 2025.
Off-grid mining operations have also achieved impressive penetration rates of renewable energy.
Western Australia’s Bellevue Gold project recently set a new benchmark by achieving 101 consecutive hours of 100% instantaneous renewable energy in the fourth quarter of 2025, delivered through a hybrid system combining 27MW of solar, 24MW of wind and a 15MW battery storage system.
This particular project utilises 5B’s prefabricated ‘Maverick’ solar arrays, a modular, relocatable technology designed specifically for remote mining applications.
Last year, 5B became the first recipient of the Australian government’s AU$1 billion (US$670 million) Solar Sunshot Program for its Maverick technology.
Aggreko and Harmony are also working collaboratively to further increase renewable energy distribution over time, including potential wind integration and future connection to transmission infrastructure, ensuring the power solution remains flexible and evolves with the project’s long-term requirements.
Construction of the hybrid power facility is expected to generate regional employment opportunities and support local contracting, supply and service partners in Cloncurry and Mount Isa.
The Eva Copper Mine Project’s focus on copper production positions it at the intersection of two critical energy transition trends: the decarbonisation of mining operations and the production of minerals essential to the deployment of renewable energy infrastructure.
The Eva Copper Mine Project is expected to commence construction in the coming months, with the renewable energy hybrid power facility scheduled to be operational ahead of the mine’s production ramp-up.
Copper is a fundamental component in solar modules, wind turbines, electric vehicles (EVs) and battery storage systems, making its production increasingly strategic as global electrification accelerates.
Australia’s mining sector, which contributed 14.3% to the nation’s GDP in 2024 and employed 300,000 people directly, has significant potential to capitalise on the economic opportunity presented by the energy transition.
For example, Solar PV has become increasingly recognised as central to Australia’s green metals opportunity, with renewable energy playing a crucial role in reducing emissions throughout the entire mining and processing value chain, from extraction to delivery.

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Research from the University of New South Wales indicates that the process used to treat copper-plated contacts in heterojunction solar cells significantly impacts their mechanical stress, strain, and microscopic structure. According to a study in Solar Energy Materials and Solar Cells, a team from UNSW and SunDrive Solar examined how different annealing conditions affect copper, indium tin oxide, and silicon layers in these cells.
The scientists compared letting samples settle at room temperature with a fast annealing method at approximately 200 degrees Celsius for 45 seconds. Analysis showed that rapid annealing reduced the copper lattice parameter but increased the lattice parameter and a specific width measurement in the underlying indium tin oxide layer. This process also raised microstrain levels in both the copper and the indium tin oxide.
Mechanical stress mapping in the silicon revealed zones of high local stress along the copper contacts, which were more pronounced in the fast-annealed samples compared to those left at room temperature. The research suggests that promoting a specific crystalline texture in the plated copper and minimizing defects can help lower the stress transferred to the silicon and indium tin oxide layers.
The findings point to a preference for room-temperature treatment when comparable contact adhesion is possible, as it better preserves the desired copper crystal orientation and limits thermal strain. This work follows other recent investigations by UNSW teams into factors affecting heterojunction solar cell durability, including environmental degradation and soldering materials.
Interactive table based on the Store Companies dataset for this report.
This report provides a comprehensive view of the solar cells and light-emitting diodes industry in Australia, tracking demand, supply, and trade flows across the national value chain. It explains how demand across key channels and end-use segments shapes consumption patterns, while also mapping the role of input availability, production efficiency, and regulatory standards on supply.
Beyond headline metrics, the study benchmarks prices, margins, and trade routes so you can see where value is created and how it moves between domestic suppliers and international partners. The analysis is designed to support strategic planning, market entry, portfolio prioritization, and risk management in the solar cells and light-emitting diodes landscape in Australia.
The report combines market sizing with trade intelligence and price analytics for Australia. It covers both historical performance and the forward outlook to 2035, allowing you to compare cycles, structural shifts, and policy impacts.
This report provides a consistent view of market size, trade balance, prices, and per-capita indicators for Australia. The profile highlights demand structure and trade position, enabling benchmarking against regional and global peers.
The analysis is built on a multi-source framework that combines official statistics, trade records, company disclosures, and expert validation. Data are standardized, reconciled, and cross-checked to ensure consistency across time series.
All data are normalized to a common product definition and mapped to a consistent set of codes. This ensures that comparisons across time are aligned and actionable.
The forecast horizon extends to 2035 and is based on a structured model that links solar cells and light-emitting diodes demand and supply to macroeconomic indicators, trade patterns, and sector-specific drivers. The model captures both cyclical and structural factors and reflects known policy and technology shifts in Australia.
Each projection is built from national historical patterns and the broader regional context, allowing the report to show where growth is concentrated and where risks are elevated.
Prices are analyzed in detail, including export and import unit values, regional spreads, and changes in trade costs. The report highlights how seasonality, freight rates, exchange rates, and supply disruptions influence pricing and margins.
Key producers, exporters, and distributors are profiled with a focus on their operational scale, geographic footprint, product mix, and market positioning. This helps identify competitive pressure points, partnership opportunities, and routes to differentiation.
This report is designed for manufacturers, distributors, importers, wholesalers, investors, and advisors who need a clear, data-driven picture of solar cells and light-emitting diodes dynamics in Australia.
The market size aggregates consumption and trade data, presented in both value and volume terms.
The projections combine historical trends with macroeconomic indicators, trade dynamics, and sector-specific drivers.
Yes, it includes export and import unit values, regional spreads, and a pricing outlook to 2035.
The report benchmarks market size, trade balance, prices, and per-capita indicators for Australia.
Yes, it highlights demand hotspots, trade routes, pricing trends, and competitive context.
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Market Size, Growth and Scenario Framing
Commercial and Technical Scope
How the Market Splits Into Decision-Relevant Buckets
Where Demand Comes From and How It Behaves
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Trade Flows and External Dependence
Price Formation and Revenue Logic
Who Wins and Why
How the Domestic Market Works
Commercial Entry and Scaling Priorities
Where the Best Expansion Logic Sits
Leading Players and Strategic Archetypes
How the Report Was Built
Australia's only solar panel manufacturer
Prefabricated solar array solutions
High-efficiency solar power plants
Flexible and glass-free solar products
Developing high-efficiency cell technology
Solar windows and glazing
Next-generation solar cell materials
Major distributor of solar products
Lead generation and consumer platform
Performance monitoring software
Racking and mounting solutions
Local subsidiary of global inverter company
Long-standing solar thermal company
Commercial and industrial LED lighting
LED lighting manufacturer and supplier
Australian subsidiary of global lighting group
Supplier of LED lighting solutions
Integrated solar LED lighting systems
Large-scale solar farm developer
Solar and LED lighting for businesses
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March 2026 marked a decisive shift in Australia’s solar generation landscape as the National Electricity Market (NEM) transitioned firmly into autumn, with both utility-scale and rooftop solar experiencing declines following the record-breaking summer.
Meanwhile, pricing dynamics revealed a more stable market environment punctuated by isolated volatility events.
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Analysis of data sourced from Open Electricity (formerly OpenNEM) reveals a seasonal downturn in March, with combined solar generation falling significantly as daylight hours shortened and solar irradiance declined.
However, the month’s pricing patterns demonstrated a marked departure from February’s extreme volatility, suggesting improved grid stability even as generation capacity contracted with the changing seasons.
March delivered a combined solar generation of 4,332GWh, representing a 5.4% decline from February 2026’s 4,572GWh and a 24% decrease from January’s record 5,698GWh. This month-on-month contraction reflects the typical seasonal trajectory as Australia moves away from peak summer conditions.
Utility-scale solar generated 1,773GWh in March 2026, marking a 3.4% decrease from February’s 1,836GWh and a 20.6% decline from January’s record 2,234GWh.
Despite this seasonal contraction, the segment showcased notable resilience when viewed year-on-year, with March 2026’s output representing a 15.9% increase from March 2025’s 1,530GWh.
Rooftop solar experienced a more pronounced decline, generating 2,559GWh in March 2026, representing a 6.5% decrease from February’s 2,736GWh and a substantial 26.1% decline from January’s 3,464GWh.
This steeper contraction reflects the distributed segment’s heightened sensitivity to seasonal variations.
However, year-on-year comparisons reveal continued growth, with March 2026’s generation representing a 9.9% increase from March 2025’s 2,329GWh, demonstrating ongoing capacity additions across Australia’s residential and commercial rooftop installations.
The data reveals a continued evolution in the generation balance between segments. Utility-scale solar accounted for 40.9% of total solar output in March 2026, compared to rooftop solar’s 59.1%, representing a 1.44:1 ratio.
This marks a further narrowing from February’s 1.47:1 ratio and January’s 1.55:1 ratio, indicating that utility-scale solar maintained a more stable generation profile during the autumn transition while rooftop solar experienced proportionally greater seasonal impacts.
Daily generation patterns throughout March 2026 showcased the increased variability characteristic of autumn conditions.
Utility-scale solar output ranged from 40GWh on 18 March to 73GWh on 10 March, reflecting an 82.5% spread. This represented greater daily volatility than the 58% spread in February, suggesting more challenging, unpredictable generation conditions.
The segment achieved output above 65GWh on only eight days throughout the month, with pronounced week-to-week variability highlighting the impact of transient weather systems.
Rooftop solar exhibited even more dramatic daily variation, spanning from 42GWh on 19 March to 103GWh on 5 March, representing a 145.2% spread.
This substantially exceeded February’s 63.5% spread, revealing the distributed network’s heightened sensitivity to changing weather patterns. The segment-maintained output above 90GWh occurred on only nine days, significantly fewer than the fourteen days above 100GWh in February.
The highest combined solar output occurred on 5 March, when utility-scale and rooftop solar together generated 169GWh. While representing the month’s peak performance, this fell dramatically short of February’s highest daily output of 195GWh and January’s record 222GWh.
Conversely, the lowest combined output was recorded on 19 March, when utility-scale solar generated 43GWh and rooftop solar produced just 42GWh, resulting in a total of 85GWh.
March 2026’s pricing environment delivered a marked departure from February’s unprecedented volatility.
Utility-scale solar prices ranged from AU$-0.26/MWh (US$-0.18/MWh) on 14 March to AU$111.90/MWh on 19 March, representing a range of AU$112.16/MWh.
This volatility was substantially lower than the AU$208.27/MWh range in February, indicating improved market stability. The segment experienced only one negative pricing event throughout the month, occurring on 14 March when prices fell to AU$-0.26/MWh.
Rooftop solar faced more volatile pricing conditions, with prices spanning from AU$-6.78/MWh on 14 March to AU$109.58/MWh on 19 March. This AU$116.36/MWh range, while substantial, represented a major improvement from February’s unprecedented AU$457.03/MWh range.
Rooftop solar experienced negative pricing on four occasions during the month: 8 March (AU$-3.21/MWh), 13 March (AU$-0.13/MWh), 14 March (AU$-6.78/MWh), and 29 March (AU$-3.78/MWh).
These events reflected periods of oversupply relative to demand, particularly during mild autumn days when solar generation remained robust while electricity consumption declined from summer peaks.
The most significant pricing event occurred during 17-19 March, when both segments experienced their highest prices of the month. Utility-scale solar reached its peak of AU$111.90/MWh on 19 March, while rooftop solar reached AU$109.58/MWh on the same day, representing a rare convergence in which both segments experienced nearly identical pricing.
Notably, this pricing event coincided precisely with the month’s lowest combined generation output of 85GWh, establishing a clear causal relationship between reduced solar availability and elevated wholesale electricity prices.
Overall, the 24% decline in combined solar generation from January’s peak demonstrates the profound impact of seasonal factors on solar output.
However, the year-on-year growth of 15.9% for utility-scale solar and 9.9% for rooftop solar confirms that capacity expansion continues to drive long-term generation increases even as seasonal cycles impose short-term constraints.
Alongside this, the continued narrowing of the generation gap between utility-scale and rooftop solar suggests a fundamental rebalancing of Australia’s solar generation mix.
Utility-scale installations demonstrated greater resilience during the autumn transition, with their 3.4% month-on-month decline substantially outperforming rooftop solar’s 6.5% decrease.
You can explore previous solar generation performance in our NEM Data Spotlight series, with all entries available to PV Tech Premium subscribers.

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Australia’s utility-scale solar PV and wind assets generated a combined 4.7TWh in March 2026, representing a 2% increase from the 4.6TWh recorded in the same month last year, according to data from Rystad Energy senior analyst David Dixon.
The modest growth follows February’s more robust 11% year-on-year increase, which saw combined generation reach 5TWh, suggesting a seasonal moderation as Australia transitions from summer into autumn.
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The March figures reveal a geographic divergence in performance, with Queensland and Western Australia dominating the top-performer rankings, while the southern states experienced notably subdued conditions.
For utility-scale solar PV, the best-performing assets, in terms of AC capacity factor, were concentrated entirely in Queensland and Western Australia.
Hana Financial Investment’s Columboola solar PV power plant led the rankings with an AC capacity factor of 32.4%, followed by Neoen’s Western Downs at 32.2% and ENEOS Group and Sojitz Corporation’s Edenvale at 31.8%.
These capacity factors represent a significant decline from February’s leaders, when Sun Energy’s Merredin Solar Farm achieved an AC capacity factor of 41.2%, showcasing the seasonal reduction in solar irradiance as summer wanes.
The geographic concentration of top performers stands in stark contrast to the distributed performance seen across multiple states in February, when utility-scale solar assets demonstrated strong results across New South Wales, Victoria and Western Australia.
Queensland emerged as the standout state for combined utility solar and wind generation, delivering 1,300GWh comprising 676GWh from utility PV and 624GWh from wind.
You can find out more about solar PV generation across the NEM in our latest NEM Data Spotlight for March 2026 (Premium access).
The top-performing wind assets were also concentrated in Queensland and Western Australia, with Potentia Energy and Synergy’s Warradarge Wind Farm leading at 56.7% capacity factor.
Potentia Energy’s Flat Rocks Wind Farm followed with 48.8%, while Rest’s Collgar Wind Farm rounded out the top three at 48.3%.
These figures contrast sharply with February’s performance, when Warradarge achieved a 60.5% capacity factor, reflecting seasonal variations in the wind resource.
Queensland achieved a historic milestone in March, recording its highest wind generation and becoming the second-highest wind-generating state on a monthly basis for the first time.
Southern states experienced particularly challenging wind conditions during March, with capacity factors below 24% in New South Wales, South Australia, Tasmania and Victoria.
Victoria recorded an especially poor result, with a capacity factor of just 18.6%, marking the third-lowest month since 2011.
Beyond generation performance, March witnessed several significant developments signalling the ongoing transformation of Australia’s electricity sector.
NEM gas generation continued its year-on-year decline, reaching approximately 540GWh compared to 631GWh in March 2025, as utility batteries and renewables continue entering the market.
Utility battery storage capacity now stands at 8.9GW at various stages of commissioning or operation, with battery systems now consistently dispatching more energy than the open-cycle gas turbine fleet, Dixon noted.
The displacement of gas generation by battery storage and renewables is expected to intensify during winter months, when batteries can charge during the day from coal and renewable energy to displace gas during evening peaks.
Operational demand remained relatively subdued in March at approximately 20.7GW, with only March 2020 and 2021 recording lower figures since 2011.
The March performance data arrives as Australia’s renewable energy sector continues navigating the transition from standalone solar installations to hybrid configurations incorporating battery storage, a shift driven by both grid integration requirements and the economic imperative to maximise asset utilisation amid growing curtailment challenges.

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Offgridtec Solar Panel Mounting Kit For Wall Or Pole – Easy Install For 20-50W Panels, All Hardware Included  ruhrkanal.news
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Pakistan’s solar power push has cushioned the full impact of the war in the Middle East, analysts said, despite lingering concerns over fuel supplies and rising prices.
A study published last month assessed that the uptake of solar around 2018 helped the country avoid more than $12 billion in oil and gas imports up to February this year.
At projected market prices, it could save a further $6.3 billion by the end of 2026, said Renewables First and the Centre for Research on Energy and Clean Air.
In the bustling side streets of Lahore, in northeast Pakistan, shopkeeper Aftab Ahmed, 49, was out shopping for solar panels to install at home to help him cut costs.
“The current fuel situation in our country is such that fuel has gone beyond the reach of the common person,” he told AFP last Friday.
“It has become so expensive that an average person can no longer afford fuel for a motorcycle or a car. Fuel prices are also affecting electricity bills, leading to further increases.
“If we shift towards solar energy, at least some savings can be achieved from one side.”
Hours earlier, the government in Islamabad announced an eye-watering 42.7-percent hike in the price of petrol and 54.9 percent on diesel.
That brought protesters onto the streets, sparked queues at fuel stations, and led the government to announce free state-run public transport for a month.
– Boom –
Rooftop solar panels are everywhere in Pakistan, helping to provide uninterrupted power and avoid often lengthy cuts in grid supply, particularly when temperatures soar.
Nabiya Imran, an energy analyst with Renewables First in the capital Islamabad, said they have also helped ease the burden caused by the disruption to shipping in the Gulf.
“Because people in Pakistan have adopted solar over the past several years, this… is providing a cushioning effect against the crisis in the Strait of Hormuz, particularly in the power sector,” she said.
“Had we not adopted solar in the first place to the extent that we have, the impacts in the power sector would be much worse.”
Pakistan’s solar surge does not mean it is immune to the supply shortages that have hit countries across Asia.
Last month, the government introduced austerity measures. The working week for public sector employees was cut to four days and schools were shut.
The Pakistan Super League cricket tournament was also cut from six venues to two, and crowds were banned, to save fuel.
But solar has made working from home more viable and affordable for Pakistanis because it cuts reliance on the grid and imported gas.
Market forces have largely driven the uptake, which the study called “one of the fastest consumer-led energy transitions on record”.
Unlike western economies, Pakistan did not impose tariffs on Chinese solar technology from 2013 until last year. As a result, imports jumped from 1 gigawatt in 2018 to 51 gigawatts early this year.
Oil and gas price rises after Russia’s full-scale invasion of Ukraine in early 2022 also forced consumers to look for alternatives, as did hefty increases in domestic energy tariffs.
Between 2022 and 2024, Pakistan saw a 40-percent drop in oil and gas imports, the study said.
– Security –
The International Energy Agency has estimated that more than 40 million of Pakistan’s more than 240 million people do not have access to electricity.
Manzoor Ishtiaq, whose shop in Lahore sells and installs solar panels, believes making the technology affordable for everyone could help.
“There should be a plan that encourages every household to adopt solar energy. This way, both the government and the public will get relief and long-term benefits,” he said.
For Renewables First’s Nabiya Imran, the Gulf crisis has shown the need for less reliance on fossil fuels and energy security using renewable sources.
She noted that Pakistan spent around 11 percent of its GDP on fossil fuel imports including oil, coal and liquefied natural gas in the 2024 fiscal year.
“That is a big chunk of money to be spending for a country like Pakistan, which could be going towards other aspects of development.”
The key now, she added, would be to push take-up of solar battery storage to prevent the use of fossil fuel-powered thermal plants to keep the lights on at peak times. 
Policymakers should also look at the transportation sector to reduce its exposure to global fuel and price shocks and cut emissions through initiatives such as electric vehicles, she added. 
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Solar push helps Pakistan temper Gulf energy shock  Yahoo Finance
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1.5 GW CSP/solar and ESS hybrid solar project to deliver 24-Hour renewable power in Xinjiang  Green Building Africa
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POWERGRID Floats Tender For 800 kV HVDC Line To Evacuate 6 GW Rajasthan Solar Power Project  SolarQuarter
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Anderson city leaders held a ribbon-cutting ceremony today to celebrate the completion of a solar installation project at the city’s wastewater treatment plant. Action News Now reporter Timea Horvath shows us what this project could mean for energy costs in the city.
ANDERSON, Calif. — Anderson city leaders held a ribbon-cutting ceremony to celebrate the completion of a solar installation project at the city’s wastewater treatment plant.
The ceremony marked the completion of a new 750-kilowatt direct current solar installation. The panels will power the city’s highest energy-consuming facility, the wastewater treatment plant.
Over the next 20 years, the project is expected to save the city about $7.5 million in utility costs, potentially benefiting local taxpayers. The wastewater treatment plant operates as an enterprise fund, meaning it is supported by sewer utility fees that go toward maintaining and operating the system.
“This will help offset those costs long-term and help save our ratepayers money,” said Anderson City Manager Joey Forseth-Deshais.
City leaders say the solar project is part of a broader effort to invest in infrastructure that pays off over time. While savings may not be immediate, officials say the goal is to make forward-thinking decisions that benefit the city long term.
“And sometimes that doesn’t happen immediately, but our investment is forward-thinking and trying to make the city the best it can possibly be,” Forseth-Deshais said.
To complete the solar array, the city partnered with Schneider Electric. Project leaders say the collaboration helped bring the project together efficiently.
“This felt more like a partnership with the city — we were both working toward the same direction,” said Khaled Addas, a project manager for Schneider Electric. “The project went very smoothly. We finished ahead of schedule and right on budget.”
The solar panels have been operational for about a month, and company officials say they are already performing above expectations at about 125%.

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Solar Panel Plague or Progress? Controversy Explodes as Farmland Disappears  agweb.com
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Waaree Energies’ Sangam Solar One Commissions 3 GW Solar Module Capacity in Gujarat with Four 750 MW Lines  SolarQuarter
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INITIAL plans have been lodged for a solar farm development in South Ayrshire.
The proposals have been put forward for land near the Auchencrosh Converter Station south of Ballantrae.
The Auchencrosh Converter Station is a key part of the Moyle Interconnector, which links the electricity transmission systems of Northern Ireland and Scotland.
This is through submarine cables running between converter stations in Country Antrim and Auchencrosh.
Owned and operated by Mutual Energy, the interconnector went into service in 2001 and can carry 500 megawatts.
The converter station at Auchencrosh is connected via a 64km overhead line to Coylton substation.
Last year, Mutual Energy completed the installation of a 490-panel solar photovoltaic (PV) array at its Moyle Interconnector converter site in County Antrim.
Now, plans have been put forward for a similar site in Ayrshire, with South Ayrshire Council being asked if an environmental impact assessment will be necessary.
No other details are included in the proposals, which can be found on the council’s planning portal using reference 26/00222/EIASCR.
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Energy Secretary Chris Wright said the Biden administration was driving energy systems “into a ditch” through massive subsidies to unreliable sources like solar power and draining the Strategic Petroleum Reserve.
Wright appeared with his wife, Liz, on “The Katie Miller Podcast” Tuesday, where he criticized former President Joe Biden’s energy policies for having a profound effect on the rest of the country.
“If you get energy wrong, you destroy your society,” Wright said.
“Another reason I think President Trump won, you know, the Biden administration literally wanted to drive our energy system into the ditch,” he added. “Just outrageous. We, fortunately, pivoted before too much deep damage. But we’ve wasted trillions of dollars. We need to repair the energy infrastructure in the Gulf. If the damage grows, it just means energy prices are going to be higher for longer after it.”
Wright also dismissed concerns about falling behind major countries like China regarding sources like solar power, pointing out that losing all solar power “wouldn’t even be a hiccup” for the country.
“If you wiped all the solar panels off the planet tomorrow, no one would notice. We were losing 10% of sort of global oil production today. It is a massive crisis. If all of the solar was zeroed out tomorrow, the world would lose 1.2% of energy,” Wright said.
He emphasized that while he is generally “pro-solar,” having worked in the solar industry, he was against subsidies to less reliable sources that drive up electricity prices. Wright instead suggested that nuclear power has a “very bright future” despite being “unfairly maligned” by climate activists.
“It’s so much easier to sell fear than to sell reassurance,” Wright said. “You know, that’s the asymmetry in politics and activism… But the environmental industry really has become sort of a fear-selling industry. And boy, you can raise billions of dollars to scare people about things like nuclear power or climate change, where there’s like a kernel of something there, but they’re just wildly exaggerated. And unfortunately, it’s been effective.”
He further criticized the Biden administration for draining the Strategic Petroleum Reserve to lower gas prices and “do well” during the 2022 midterm elections while praising the Trump administration‘s efforts to replenish it.
“At the end of next year, we’ll have more oil in the Strategic Petroleum Reserve than we did when President Trump took office, meaningfully more oil than when he took office,” Wright said.
Biden’s office did not immediately respond to Fox News Digital’s request for comment.
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Wright has been critical of the Biden administration since he began his position as President Donald Trump’s energy secretary last year. In May, he claimed that the Biden administration “strangled” the state of Alaska with more regulations than North Korea, Iran and Venezuela combined.
“Alaska, a state that has had more sanctions, more restrictions on production of oil and gas in Alaska than everything we did to Iran and Venezuela and North Korea if they produced any combined,” he said. “You know, the last administration just strangled Alaska. This awesome state of immense natural resources.”

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Cook County completes solar power project at Skokie Courthouse  cbsnews.com
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Coro Energy Begins 1.6 MW Rooftop Solar Project In Vietnam  SolarQuarter
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Aroma Solar Launch: Fully Automated 1.2GW Solar Module Facility Begins Production in Karnal  SolarQuarter
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Recurrent Energy Sells 42.5 MWp Higher Witheven Solar Project In Cornwall After Securing UK CfD Contract  SolarQuarter
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A Columbia Engineering study shows how neighborhood-level electric vehicle charging could let tropical cities expand solar energy without costly grid upgrades.
Columbia University School of Engineering and Applied Science
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These illustrations show how electric vehicles can help balance a city’s power grid as solar generation fluctuates during passing thunderstorms.
Credit: Urban Systems Engineering Lab
In tropical cities, afternoon thunderstorms can plunge entire neighborhoods into brief moments of darkness. 
When civil engineer Markus Schläpfer moved to Singapore a decade ago, he recognized these thunderstorms as an emerging engineering challenge. For cities that hope to run on solar energy, these short periods without strong sunlight could destabilize urban power grids and undermine reliability.
In a new paper, published April 7 in Nature Communications,  Schläpfer and collaborators explain how tropical cities, which will soon contain half of the global population, can address this problem without expensive infrastructure build-outs. For Schläpfer, the solution lies in connecting electric vehicles to the grid. 
"If you have a thunderstorm moving over an area with solar energy, you can have your electric cars that are parked serve as the energy source and balance out this lack of energy generation," said Schläpfer, assistant professor of civil engineering and engineering mechanics at Columbia Engineering. “When the thunderstorm moves away, the cars are charged again by the photovoltaics.”
The hidden cost of going solar
Solar photovoltaics (PV) have become one of the cheapest sources of energy on the planet. PV energy is inexpensive, carbon-free, and reliable — when the sun is shining. When thunderstorms cut off power generation in one neighborhood, electricity has to travel from neighboring regions that are generating power. While that trip may only be a mile or two, the amount of electricity flowing through powerlines can easily overwhelm the grid’s capacity. 
Traditionally, fixing a problem like this would require new infrastructure, but that comes with significant drawbacks. In dense cities, such projects can be staggeringly expensive. Underground transmission lines in Singapore, for example, cost around 60 million Singapore dollars per kilometer. 
“Building new infrastructure is extremely challenging and expensive in dense cities,” Schläpfer said. “This is a way to use the existing network in a more efficient way and integrate more solar photovoltaics, which would otherwise need more transmission line capacity.”
Batteries already on the road
Researchers across the world are exploring the possibility of using electric vehicles — namely their batteries — as a substitute for new grid capacity. The idea is simple: since electric vehicles have high-capacity batteries that connect to the grid through charging cables, the grid should be able to use the energy stored in these batteries as a backup during short-lived lulls in PV generation. 
"Car batteries can feed in the electricity stored in their batteries to the grid," Schläpfer explained. "We do not need to import the electricity from nearby neighborhoods. Therefore, we do not need to install a new cable.”
When a thunderstorm cuts off solar generation in a neighborhood, nearby parked cars discharge stored energy into the local grid, absorbing the shortfall without requiring power to travel from elsewhere. When the storm passes, the panels recharge the cars.
The right scale for the problem
Schläpfer’s paper demonstrates the importance of scale in developing a strategy for charging and discharging EV batteries for this purpose. A conventional city-wide optimization strategy can make things worse: by smoothing aggregate demand, it allows local imbalances to accumulate, forcing the system to push large amounts of electricity across longer distances. According to the team’s research, loads traveling through some transmission lines more than doubled during thunderstorms.
A better approach is managing charging neighborhood by neighborhood — in this case, across Singapore's 55 urban planning areas — to reduce maximum line loads by roughly 18 percent on storm days while also smoothing the broader daily demand curve. 
"It's one of those things that only seems intuitive once you see it," Schläpfer said. "This potential hasn’t really been explored before."
Where cars park matters
The method's effectiveness depends on where cars are parked. Residential neighborhoods empty out during the day, leaving fewer batteries available when solar generation peaks. Commercial districts show the reverse. The researchers mapped these patterns using anonymized, aggregated mobile phone data, which provided a level of detail that allowed for more accurate models.
Crucially, the approach works even where car ownership is low. Singapore has roughly one vehicle per eight residents. 
"This solution is really working in very car-light environments," Schläpfer said. "We need only a small number of cars, and it works."
Nature Communications
10.1038/s41467-026-71123-6
News article
How Electric Cars Could Help Tropical Cities Run on Solar
7-Apr-2026
The author(s) declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper.
Disclaimer: AAAS and EurekAlert! are not responsible for the accuracy of news releases posted to EurekAlert! by contributing institutions or for the use of any information through the EurekAlert system.
Media Contact
Mohamed Abdelfattah
Columbia University School of Engineering and Applied Science
me3007@columbia.edu

Columbia University School of Engineering and Applied Science


Copyright © 2026 by the American Association for the Advancement of Science (AAAS)
Copyright © 2026 by the American Association for the Advancement of Science (AAAS)

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New research from the University of New South Wales shows that PV module degradation varies widely with system design and location, driven by UV exposure, temperature, humidity, and atmospheric conditions. Tropical and desert regions face the highest stress, highlighting the need for climate-specific testing and system design.
Image: pv magazine/AI generated
Utraviolet (UV) radiation has been long recognised as a key driver of PV module degradation. This factor is however significantly underestimated in current testing standards, particularly for modern system designs and high-irradiance regions.
With this in mind, a group of researchers at the University of New South Wales (UNSW) in Australia has developed a high-precision global UV irradiance model on tilted surfaces, capturing the impact of system design, climate, and atmospheric conditions.
“Our new model demonstrates that identical module technologies degrade differently depending on deployment location, highlighting the need for climate-specific reliability assessment,” corresponding author Bram Hoex told pv magazine. “It also offers a pathway to move beyond generic accelerated testing toward regionally relevant degradation modeling and qualification protocols.”
The researchers highlighted that global UV irradiance can range from below 30 W/m² in high-latitude regions to over 80 W/m² in deserts and dry climates. In some locations, the UV dose specified in the IEC 61215 standard, which is just 15 kWh/m², can be reached in less than two months. By contrast, real-world exposure over a module’s lifetime is orders of magnitude higher.
“Current testing thresholds are simply too low to replicate long-term field conditions,” the authors noted, adding that even enhanced protocols fall short of simulating 25–30 years of operation.
One of the most striking findings of the study relates to system design. The researchers compared fixed-tilt installations with single-axis tracking (SAT) systems and found that trackers receive significantly more UV radiation due to their orientation toward the sun throughout the day.

In high-irradiance regions, such as deserts, single-axis tracking (SAT) systems can be exposed to up to 1.5 times more UV radiation than fixed-tilt systems, leading to degradation rates that are nearly twice as high. This results in annual UV-driven degradation rates of up to 0.35% per year for SAT systems, compared with approximately 0.25% per year for fixed-tilt installations.
Over the course of a typical project lifetime, this difference can accumulate to several percentage points of additional power loss, directly impacting the economics and long-term performance of the PV system.
The study also showed that identical PV modules can degrade at markedly different rates depending on their installation location. The key factors driving this variability include UV irradiance, temperature, humidity, and atmospheric conditions such as ozone levels, aerosols, and cloud cover. Among the most challenging environments are tropical and desert regions, where high UV exposure combines with intense thermal and environmental stress, accelerating module degradation.
“Current standards significantly underestimate real-world UV exposure, in some cases by orders of magnitude relative to lifetime conditions,” Hoex said. “UV exposure varies significantly with location and system configuration, with tracking systems experiencing up to around two times higher degradation rates in high-irradiance regions. In arid and tropical climates, UV-induced degradation can reach about 0.25–0.35%/year, contributing substantially to long-term performance loss.”
The novel high-precision model to estimate UV radiation in PV systems was presented in the paper “Closing the UV-Induced Photodegradation Gap Through Global Scale Modeling of Fixed Tilt and Tracking Photovoltaic Systems,” pubished in the IEEE Journal of Photovoltaics.
“This work forms part of our group’s broader effort to connect fundamental degradation mechanisms with system-level impacts in the field, combining targeted accelerated testing—such as UV, damp heat, and contamination—with physics-based and data-driven modeling at the system scale to quantify how both established and emerging failure modes translate into real-world energy yield losses across diverse climates and system designs,” Hoex concluded.
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Invesco Solar ETF Powers a New Era for Green Energy Investments  Barron’s
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Sunsure Energy has signed three consecutive long-term power purchase agreements with Wonder Cement, covering 30 MWp across Maharashtra and Uttar Pradesh, targeting a 33,000-tonne annual reduction in CO₂ emissions.
Sunsure Energy has signed three consecutive long-term power purchase agreements (PPAs) with cement maker Wonder Cement, covering a total capacity of 30 MWp of solar energy. The contracts renew an existing partnership, with Sunsure positioning itself as a repeat supplier in India’s open-access market — as also seen with the 20.80 MWp solar PPAs signed with LGE India to decarbonize its plants. Sunsure says it has already begun delivering electricity to both industrial sites. The agreements cover facilities in Maharashtra and Uttar Pradesh.
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HEP, Croatia's electricity operator, plans a 56 MW solar plant in Sukošan and a 36 MW wind farm at Zelovo, backed by an EBRD loan of up to €100 million.
Extremadura's Directorate General of Industry, Energy and Mines granted prior administrative authorization on March 24, 2026, to FRV Guijo Solar 4 for its photovoltaic installation
Pattern Energy completed the acquisition of Cordelio Power, adding approximately 1,550 MW of assets across 16 wind, solar, and storage projects in North America.

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According to a report from pv magazine Italia, New Time has detailed a four-phase roadmap to commercialize perovskite solar cell production in Italy. The plan follows a strategic meeting in Forli within the Emilia-Romagna region.
The initial year will concentrate on refining the perovskite formula and selecting stabilizing materials. A subsequent phase will involve starting limited production for certification purposes.
The third year of the project is dedicated to creating an industrial manufacturing solution. Full-scale production is scheduled to commence in the fourth year, with pilot-scale output anticipated within three years.
To facilitate this rollout, the company intends to dedicate existing industrial facilities to the initiative, supported by internal investment. Funding is reportedly already in progress, sourced from the reinvestment of company profits into innovation and research.
New Time indicated that current perovskite module pricing is affected by unoptimized processes and ongoing material choices. The project seeks to enhance cost competitiveness against established photovoltaic technologies while pursuing performance and efficiency improvements.
The recent Forli meeting involved researchers from Italian and Dutch institutions, including the Italian National Research Council, the University of Bari Aldo Moro, and Delft University of Technology. The discussions centered on defining operational stages and establishing methods for sharing expertise and technologies.
Interactive table based on the Store Companies dataset for this report.
This report provides a comprehensive view of the solar cells and light-emitting diodes industry in Italy, tracking demand, supply, and trade flows across the national value chain. It explains how demand across key channels and end-use segments shapes consumption patterns, while also mapping the role of input availability, production efficiency, and regulatory standards on supply.
Beyond headline metrics, the study benchmarks prices, margins, and trade routes so you can see where value is created and how it moves between domestic suppliers and international partners. The analysis is designed to support strategic planning, market entry, portfolio prioritization, and risk management in the solar cells and light-emitting diodes landscape in Italy.
The report combines market sizing with trade intelligence and price analytics for Italy. It covers both historical performance and the forward outlook to 2035, allowing you to compare cycles, structural shifts, and policy impacts.
This report provides a consistent view of market size, trade balance, prices, and per-capita indicators for Italy. The profile highlights demand structure and trade position, enabling benchmarking against regional and global peers.
The analysis is built on a multi-source framework that combines official statistics, trade records, company disclosures, and expert validation. Data are standardized, reconciled, and cross-checked to ensure consistency across time series.
All data are normalized to a common product definition and mapped to a consistent set of codes. This ensures that comparisons across time are aligned and actionable.
The forecast horizon extends to 2035 and is based on a structured model that links solar cells and light-emitting diodes demand and supply to macroeconomic indicators, trade patterns, and sector-specific drivers. The model captures both cyclical and structural factors and reflects known policy and technology shifts in Italy.
Each projection is built from national historical patterns and the broader regional context, allowing the report to show where growth is concentrated and where risks are elevated.
Prices are analyzed in detail, including export and import unit values, regional spreads, and changes in trade costs. The report highlights how seasonality, freight rates, exchange rates, and supply disruptions influence pricing and margins.
Key producers, exporters, and distributors are profiled with a focus on their operational scale, geographic footprint, product mix, and market positioning. This helps identify competitive pressure points, partnership opportunities, and routes to differentiation.
This report is designed for manufacturers, distributors, importers, wholesalers, investors, and advisors who need a clear, data-driven picture of solar cells and light-emitting diodes dynamics in Italy.
The market size aggregates consumption and trade data, presented in both value and volume terms.
The projections combine historical trends with macroeconomic indicators, trade dynamics, and sector-specific drivers.
Yes, it includes export and import unit values, regional spreads, and a pricing outlook to 2035.
The report benchmarks market size, trade balance, prices, and per-capita indicators for Italy.
Yes, it highlights demand hotspots, trade routes, pricing trends, and competitive context.
Report Scope and Analytical Framing
Concise View of Market Direction
Market Size, Growth and Scenario Framing
Commercial and Technical Scope
How the Market Splits Into Decision-Relevant Buckets
Where Demand Comes From and How It Behaves
Supply Footprint and Value Capture
Trade Flows and External Dependence
Price Formation and Revenue Logic
Who Wins and Why
How the Domestic Market Works
Commercial Entry and Scaling Priorities
Where the Best Expansion Logic Sits
Leading Players and Strategic Archetypes
How the Report Was Built
Part of Enel Group, develops solar plants globally
Major global inverter manufacturer
Renewable energy systems integrator
Distributor for major PV brands
Solar asset manager and developer
Engineering, procurement, construction
Joint venture for solar plant operation
PV systems for building envelopes
PV module manufacturer
Inverter and energy storage systems
Subsidiary of global LEDVANCE group
Major Italian lighting manufacturer
Designer architectural LED lighting
Part of Fagerhult Group
Industrial and commercial LED
Landscape and urban LED lighting
Indoor and outdoor LED fixtures
Industrial and decorative lighting
LED modules and drivers
Innovative LED fixtures and systems
LED lighting for interiors
Architectural and industrial LED
LED lamps and home products
Commercial and residential LED
Industrial and street LED lighting
LED fixtures and controls
Solar system design and installation
Energy efficiency and PV systems
Residential PV system provider
LED lighting manufacturer and distributor
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