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According to the latest IndexBox report on the global Inverter Protection Devices market, the market enters 2026 with broader demand fundamentals, more disciplined procurement behavior, and a more regionally diversified supply architecture.
The global market for inverter protection devices is entering a decade of transformative growth, fundamentally linked to the worldwide expansion of renewable energy and electrification infrastructure. These critical components—including surge protection devices (SPDs), DC fuses, arc-fault interrupters, and thermal protection relays—are essential for ensuring the safety, reliability, and longevity of power inverters across solar PV, energy storage, electric vehicle charging, and industrial applications. Our analysis forecasts the market dynamics from a 2026 baseline through 2035, a period characterized by escalating installations of inverter-dependent systems. Growth will be propelled by stringent international safety standards, the rising power density of modern inverters requiring more robust protection, and the economic imperative to minimize downtime in critical power infrastructure. However, the market faces headwinds from cost pressures in highly competitive segments and supply chain dependencies for specialized semiconductors. This report provides a detailed examination of demand catalysts, competitive strategies, and regional shifts, offering stakeholders a data-driven perspective on the opportunities and challenges defining the next decade for this strategically vital component industry.
The baseline scenario for the Inverter Protection Devices market from 2026 to 2035 is one of sustained, above-GDP growth, directly mirroring the deployment curves of its primary end-use sectors. The fundamental driver is the global energy transition, mandating a massive build-out of solar PV, wind, and grid-scale storage, all reliant on protected power conversion. Market expansion is not uniform; it will be segmented by application, with utility-scale solar and EV fast-charging infrastructure demanding high-reliability, certified protection suites, while residential solar may prioritize cost-optimized solutions. Technological evolution will be a constant, with protection devices integrating more diagnostics, communication capabilities for predictive maintenance, and faster response times to match next-generation wide-bandgap semiconductor switches in inverters. The competitive landscape is expected to remain concentrated among established global players with deep expertise in power electronics and regulatory compliance, though niche innovators may capture specific application segments. Pricing will be subject to dual pressures: downward trends from manufacturing scale and competition, partially offset by upward pressure from added functionality and stricter safety certifications. Overall, the market’s health is inextricably tied to policy support for renewables and electrification, making it resilient yet sensitive to shifts in regulatory and subsidy environments in key economies.
Solar PV represents the largest and most dynamic segment for inverter protection devices, driven by relentless global capacity additions. The current market is dominated by demand for string and central inverter protection in utility-scale farms, requiring high-current DC fuses, disconnect switches, and surge protection for extensive cabling runs. Through 2035, the segment’s evolution will be shaped by the shift towards higher system voltages (1500V+ DC), which demands protection devices with higher voltage ratings and enhanced arc-fault detection capabilities. The growth of distributed generation, including commercial and industrial rooftop solar, expands the need for compact, UL-certified protection suites. Key demand-side indicators are annual global PV installation volumes (GW), average inverter sizing, and the regulatory push for rapid shutdown and arc-fault protection mandates. The mechanism is direct: each new MW of solar capacity requires a proportional suite of protection devices at the DC input, AC output, and within the inverter itself, making this market a near-perfect derivative of PV deployment trends. Current trend: Strong Growth.
Major trends: Transition to 1500V DC systems requiring higher-voltage protection components, Integration of arc-fault circuit interrupters (AFCIs) driven by fire safety codes, Demand for combiners with integrated protection for large-scale farms, Growth of microinverters and power optimizers creating a market for device-level protection, and Increasing requirements for monitoring and remote diagnostics of protection status.
Representative participants: SMA Solar Technology AG, Sungrow Power Supply Co., Ltd, Huawei Technologies Co., Ltd, Fimer S.p.A, SolarEdge Technologies Inc, and Enphase Energy.
The EV charging infrastructure segment is poised for explosive growth, creating a parallel surge in demand for specialized inverter protection devices. Current demand centers on DC fast-charging (DCFC) stations, where high-power inverters convert AC grid power to DC for vehicle batteries, necessitating robust protection against surges, overloads, and ground faults. The mechanism is power-scale dependent: higher charging power (350kW, 400kW+) requires protection devices with higher interrupting ratings and faster response times. Through 2035, demand will accelerate as public and fleet charging networks expand, and as ultra-fast charging (>1MW) for commercial vehicles emerges. Key indicators are the number of DCFC ports deployed, average charger power rating, and grid interconnection standards. Protection in this segment is critical for both equipment safety and grid stability, with devices often requiring specific certifications for outdoor, high-availability use. The need for reliable, maintenance-free operation in unattended locations further drives demand for advanced, durable protection solutions. Current trend: Very High Growth.
Major trends: Scaling of charger power ratings towards 400kW and beyond for passenger vehicles, Emergence of megawatt-class charging for electric trucks and buses, Grid integration requirements mandating advanced protection and connectivity, Standardization of safety and communication protocols (e.g., ISO 15118, CCS), and Deployment in harsh environments requiring ruggedized enclosure ratings.
Representative participants: ABB Ltd. (EV charging division), Tritium DCFC Limited, Alpitronic (Hypercharger), ChargePoint, Inc, Shell Recharge Solutions, and BTC Power.
The UPS and critical power segment demands the highest reliability standards for inverter protection, driven by data centers, healthcare, telecommunications, and industrial process control. Current systems utilize comprehensive protection suites within double-conversion online UPS units to safeguard sensitive loads from power anomalies. The demand mechanism is tied to the value of uptime; any failure in the inverter stage can lead to catastrophic downtime, justifying investment in premium, redundant protection devices. Through 2035, growth will be supported by the global expansion of hyperscale data centers, 5G network infrastructure, and the increasing digitization of industry. Key demand indicators are data center capacity (MW), colocation market growth, and investments in modernizing industrial automation. The trend towards modular, scalable UPS designs also influences protection device specifications, favoring compact, plug-and-play protection modules that can be easily serviced or replaced without system shutdown. Current trend: Steady Growth.
Major trends: Hyperscale data center growth driving demand for high-power, modular UPS systems, Increasing adoption of lithium-ion batteries in UPS, requiring compatible DC protection, Integration of UPS with renewable microgrids, adding complexity to protection schemes, Demand for predictive maintenance capabilities via smart, connected protection devices, and Stringent uptime requirements (Tier III/IV) mandating redundant protection paths.
Representative participants: Vertiv Holdings Co, Eaton Corporation, Schneider Electric (APC), Legrand, Riello Elettronica, and Cyber Power Systems.
Inverter protection devices are integral to variable frequency drives (VFDs) used for motor control across manufacturing, HVAC, and process industries. Current demand is for compact, DIN-rail mounted protection components that guard against line-side surges, overloads, and short circuits on the motor side. The mechanism is linked to industrial energy efficiency mandates and automation upgrades, as each new or retrofitted VFD installation requires a matched set of protection devices. Through 2035, demand will be driven by the continued electrification of industrial processes, the rollout of smart factories, and the need to protect sensitive drive electronics from increasingly ‘dirty’ grid power. Key indicators include global industrial automation investment, motor sales, and regulations promoting high-efficiency motor systems (e.g., IE4/IE5). The segment demands devices capable of withstanding harsh industrial environments, with high immunity to electromagnetic interference and wide operating temperature ranges. Current trend: Moderate Growth.
Major trends: Adoption of higher-efficiency (IE4/IE5) motors paired with advanced VFDs, Growth of modular and decentralized automation architectures, Increasing need for protection in regenerative drive systems feeding power back to the grid, Integration of condition monitoring sensors into protection devices, and Demand for safe torque off (STO) functionality integrated with protection.
Representative participants: ABB Ltd. (Drives), Siemens AG, Danfoss A/S, Yaskawa Electric Corporation, Rockwell Automation, and WEG S.A.
This segment encompasses specialized applications including marine vessel power systems, mobile off-grid power units, railway traction, and aerospace ground support. Current demand is for highly ruggedized, corrosion-resistant protection devices that meet specific environmental and safety standards (e.g., marine classification societies). The protection mechanism is critical due to the isolated and harsh operating conditions; a fault can have severe consequences when repair facilities are distant. Through 2035, growth will be supported by the electrification of shipping (port power, hybrid/electric vessels), expansion of mining and construction equipment using electric drivetrains, and deployment of mobile renewable microgrids. Key demand indicators include investments in electric and hybrid marine vessels, orders for heavy electric mining trucks, and military spending on mobile power systems. Devices in this segment often require custom engineering for vibration resistance, wide temperature tolerance, and compliance with niche industry certifications. Current trend: Specialized Growth.
Major trends: Electrification of ports and shipping (cold ironing, hybrid propulsion), Growth of battery-electric heavy machinery in mining and construction, Deployment of containerized, mobile power systems for disaster relief and remote sites, Stricter emission regulations driving adoption of electric auxiliary power units, and Increased use of power electronics in railway and electric ferry systems.
Representative participants: Curtiss-Wright Corporation, Bender GmbH & Co. KG, NORIS Group GmbH, Marathon Special Products, Mersen S.A. (Marine), and E-T-A Circuit Breakers.
Interactive table based on the Store Companies dataset for this report.
Asia-Pacific is the undisputed leader, driven by massive solar PV and EV infrastructure investments in China, India, Southeast Asia, and Australia. The region houses leading inverter and protection device manufacturers, creating a robust supply ecosystem. Growth will be sustained by national renewable energy targets and rapid urbanization. Direction: Dominant and Fastest Growing.
North America exhibits strong, policy-supported growth led by the U.S. Inflation Reduction Act, boosting solar, storage, and EV charging deployments. Stringent safety standards (UL, NEC) define product requirements. The market is mature and competitive, with demand from utility-scale projects, data centers, and a growing residential solar sector. Direction: Strong Growth.
Europe’s market is driven by the EU’s Green Deal and REPowerEU plan, accelerating renewable energy and phasing out fossil fuels. Demand is sophisticated, with high emphasis on product quality, certifications (CE, VDE), and system integration. Growth hotspots include Southern Europe for solar and Western/Northern Europe for EV infrastructure and offshore wind. Direction: Steady Growth.
Latin America presents an emerging growth frontier, led by Brazil, Mexico, and Chile. Growth is fueled by abundant solar resources, energy security needs, and gradual EV adoption. The market is cost-sensitive but growing in sophistication. Challenges include currency volatility and uneven regulatory frameworks across countries. Direction: Emerging Growth.
This region shows moderate growth from a small base, with high long-term potential. The Middle East, particularly the GCC nations, is investing heavily in large-scale solar PV to diversify from oil. Africa’s growth is patchy, focused on South Africa and other nations with supportive policies for mini-grids and off-grid solar solutions. Direction: Moderate Growth with High Potential.
In the baseline scenario, IndexBox estimates a 8.7% compound annual growth rate for the global inverter protection devices market over 2026-2035, bringing the market index to roughly 225 by 2035 (2025=100).
Note: indexed curves are used to compare medium-term scenario trajectories when full absolute volumes are not publicly disclosed.
For full methodological details and benchmark tables, see the latest IndexBox Inverter Protection Devices market report.
This report provides an in-depth analysis of the Inverter Protection Devices market in the World, including market size, structure, key trends, and forecast. The study highlights demand drivers, supply constraints, and competitive dynamics across the value chain.
The analysis is designed for manufacturers, distributors, investors, and advisors who require a consistent, data-driven view of market dynamics and a transparent analytical definition of the product scope.
This report covers the global market for inverter protection devices, which are critical electronic components designed to safeguard inverters from electrical faults and ensure system reliability. The scope includes devices that protect against surges, overloads, ground faults, arcs, and other anomalies across various power conversion applications.
The market is segmented by product type, application, and value chain. Product segmentation includes distinct protection technologies such as SPDs and fault interrupters. Application analysis covers solar PV, wind, UPS, EV charging, and industrial drives. The value chain spans from semiconductor components to end-user installation across residential, commercial, and industrial sectors.
World
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.
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What Is Included and How the Market Is Defined
How the Market Is Split into Comparable Segments
Upstream Inputs, Manufacturing Landscape and Go-to-Market
End-Use Drivers and Adoption Requirements
Finding New Products to Diversify Your Business
Choosing the Best Countries to Establish Your Sustainable Supply Chain
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The Latest Trends and Insights into The Industry
The Largest Import Supplying Countries
The Largest Destinations for Exports
The Key Company Types and Market Structure
The Largest Markets And Their Profiles
Key player in electrical protection
Comprehensive industrial portfolio
Major in power management
Strong in solar & critical power
Protection component leader
Inverter maker with protection devices
Key in industrial connectivity
Electrical protection expert
Major in smart PV solutions
Broad industrial & renewable portfolio
Critical power solutions
Specialist in circuit protection
Inverter-focused protection
Part of Schneider Electric
Industrial electronics interface
Leading in surge protection
Specialist in electrical safety
US-focused solar solutions
Broad electrical components
Major PV inverter manufacturer
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Sahaj Solar plans 750 MW solar panel plant in UAE via subsidiary with strategic partner.
March 11, 2026. By EI News Network
Sahaj Solar Ltd. has approved a proposal to establish a 750 MW solar panel manufacturing facility in the United Arab Emirates through a step-down subsidiary in partnership with a strategic partner, according to a regulatory filing with the National Stock Exchange of India.
The decision was taken during the company’s Board meeting held recently. Initially, the Phase-I manufacturing plant with a capacity of 750 MW was planned to be set up in India. However, after evaluating market conditions and global pricing advantages, the company decided to pursue the project from the UAE to leverage economic and strategic benefits available in international markets.
To facilitate the project, the board approved the incorporation of a step-down subsidiary in the UAE. The proposed entity, tentatively named Sahaj Energy Solar Panels Manufacturing L.L.C. (or any other name approved by authorities), will be incorporated through the company’s wholly owned subsidiary Sahaj Renewable Energy Trading – FZCO. The subsidiary is expected to operate in the energy sector and focus on solar panel manufacturing activities.
Under the proposal, Sahaj Renewable Energy Trading – FZCO will hold 51 percent shareholding in the new entity. The investment will be made through cash consideration, with a proposed subscription of AED 51,000, representing 51 shares of AED 1,000 each. The incorporation and operations will be subject to necessary regulatory approvals under both UAE and Indian laws.
Apart from the international expansion plan, the board also approved several corporate governance decisions. The company appointed Yagnavalkya Munindrabhai Joshi as Company Secretary and Compliance Officer with effect from March 7, 2026. Joshi is an Associate Member of the Institute of Company Secretaries of India with over ten years of experience in corporate law, SEBI regulations, and compliance management.
The board also appointed Richi Prerak & Associates, a peer-reviewed firm of practicing company secretaries, as the Secretarial Auditor for the financial year 2025-26.
Additionally, the company reconstituted its Audit Committee. The revised committee will be chaired by Niren Gautambhai Dalal, an independent director, with Dilip Balshanker Joshi, Amita Jatin Parikh, and Managing Director Pramit Bharatkumar Brahmbhatt serving as members.
The board also took note of the resignation of Poonam Pravinbhai Panchal from the position of Company Secretary and Compliance Officer, which had been earlier communicated to the stock exchange on February 26, 2026.

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Activ8 Solar Energies has installed a €1.17m rooftop solar panel system at Tayto‘s production facility in Co Meath.
The project marks Tayto’s largest investment in renewables to date and will see 1,734 solar panels installed at the Ashbourne site.
The system will generate approximately 667 MWh of electricity annually – supplying around 10% of the factory’s power demand and reducing carbon emissions by an estimated 146 tonnes of CO2 each year.
“This project demonstrates what’s possible when iconic Irish brands take decisive action on sustainability,” said Ciaran Marron, CEO of Activ8 Solar Energies.
“On-site generation is increasingly becoming core infrastructure for manufacturers. We’re proud to support Tayto Snacks in building long-term energy resilience while reducing carbon exposure.”

John O’Connor, managing director at Tayto Snacks, commented: “This investment marks a major step forward in strengthening our energy resilience while reducing our carbon footprint.
“Generating over 667 MWh of clean electricity onsite each year, this installation directly supports Ireland’s climate ambitions and reinforces our long-term commitment to sustainable manufacturing.”
The rooftop system will use Activ8’s Duo N-Type bifacial solar panels, designed to maximise efficiency and reliability in Irish weather conditions.
Declan Meally, director of business at the SEAI, added: “This project showcases Irish businesses leading the way in renewable energy.
“Generating 10% of the site’s energy from rooftop solar here at Tayto Snacks is a significant achievement, and SEAI is proud to support it. Activ8, working in partnership with SSE, has delivered a strong model that more businesses should follow.”
The initiative was supported by grant funding from SEAI under the Non-Domestic Microgeneration Grant (NDMG) scheme.
Planning and development for the project began in December 2024, with onsite works commencing in March 2025. The system is now fully commissioned and operational.
Photo: (l-r) Martin Mullholland, Oisín Burke, John O’Connor, Simon Murray and Declan Meally. (Pic: Supplied)

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Certa has agreed to its first two deals as part of a plan to deliver €50 million worth of solar-energy projects and 50 megawatts (MW) of solar PV power to 100 large Irish businesses over the next five years.
The company, which is part of DCC plc, will deliver the deals through its new Solar as a Service (SaaS) offering.
Alternative Energy Ireland (AEI) – a leading solar- and renewable-energy company that Certa acquired in 2023 – is delivering the new SaaS offering.
SaaS enables large Irish businesses to harness the power of rooftop- and ground-mounted  solar photovoltaic (PV) panels to significantly reduce their energy costs and carbon emissions without any capital investment or maintenance costs.
Jabil, who specialises in the design, development and commercial scale-up of complex and innovative healthcare products for the world’s leading pharmaceutical, medical device and diagnostic companies, is the first company in Ireland to avail of the new service, in a deal valued at €1.2 million.

It is also installing 3,000 rooftop solar PV panels at its state-of-the-art premises in Bray, Co. Wicklow, where it employs 450 people.
The 1.5 MW system will generate 1.3 million kilowatt (kWh) units of renewable solar power annually for the next 25 years.
It will also reduce carbon emissions by 360 tonnes each year.
Lindab, one of Europe’s leading suppliers of energy-efficient ventilation systems, building solutions and accessories, is also one of the first Irish companies to avail of Certa’s SaaS offering.
The group agreed a deal worth €200,000, and thus will instal 400 rooftop solar PV panels across its three sites in Dublin.

The 178 kWh system will generate 165,000 kWh units of solar power annually, as well as reducing its carbon emissions by 44 tonnes each year.
Certa will manage the delivery of each new solar-energy project through AEI.
It has also partnered with Wewise, a sister company to the DCC plc group, to deliver its comprehensive solar solution for the Irish market.
AEI will manage the installation and ongoing maintenance of each new solar-energy project, to ensure that it achieves 90% of its expected energy output annually, with the added benefit of real-time monitoring.
Wewise will provide Irish businesses with tailored financing arrangements for these solar-energy projects with upfront costs.

Certa is expecting to generate about 50 gigawatt-hours (GWh) of clean energy annually, enough to power approximately 12,000 Irish homes each year.
Commenting on the progress, Certa Ireland managing director Orla Stevens said, “We are delighted to provide our Solar as a Service to Jabil and Lindab, and to respond to the growing demand from large commercial businesses in Ireland who are seeking renewable-energy solutions that enable them to reduce their energy costs and carbon emissions without any capital investment or maintenance costs.
“Our SaaS model is designed to help businesses adopt solar energy and to overcome the barriers to adoption, including limited access to capital [to] finance the initial high cost of installing renewable-energy infrastructure, and the ongoing financial commitment that is required to maintain the solar-power technology.”
AEI managing director Steven Bray added, “Solar as a Service makes it easy for businesses to harness the power of solar energy without the cost of purchasing and maintaining the technology.
“The service includes a single monthly fee and a service-level agreement for the duration of the contract.

“It is a win-win for Irish businesses, with the other benefits including significant energy savings and a reduced carbon footprint.”
Read More: Ireland’s Deposit Return Scheme Reaches 2.5bn Returns
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“It undermines the credibility of the process and is unfair to residents who participated honestly and in [good] faith.”
Photo Credit: iStock
There’s no doubt that community advocacy gets results. But what happens when local opposition is inflated or overwhelmingly made up? A solar project in Ohio may fall victim to this type of “fabricated” pushback, according to an investigation from Canary Media.   
Open Road Renewables intends to invest $98 million for a 94-megawatt solar grazing center, a dual-use space in Morrow County that would support sheep and solar production. While it may seem counterintuitive, studies have found that agrivoltaic projects are mutually beneficial for farmers and animals, while also reducing electricity costs and improving local air quality.  
A home solar system offers similar energy savings. If you’re interested in exploring your options, EnergySage makes it easy to obtain quick solar estimates and compare quotes. 
However, solar projects do have their detractors. In part, misinformation about their merits makes some people hesitant to back projects like Morrow County’s Crossroads Solar Grazing Center. 
Want to go solar but not sure who to trust? EnergySage has your back with free and transparent quotes from fully vetted providers in your area.
To get started, just answer a few questions about your home — no phone number required. Within a day or two, EnergySage will email you the best options for your needs, and their expert advisers can help you compare quotes and pick a winner.
Still, support for solar remains robust across political lines despite the current administration’s unfavorable view of such projects, with nearly 70% of Republicans agreeing in a national poll that solar needs to be part of the energy mix to lower energy costs, per Ink World Magazine. 
In Morrow County, a perplexing amount of backlash apparently wasn’t what it seemed. Canary Media examined 34 instances in which opponents of the solar grazing center were suspected of providing false names or lying about being locals during the public comment period. 
The independent, nonprofit news organization was only able to verify the existence of one of the commenters, and when it emailed them, the message was returned as undeliverable. 
The power sitting board is expected to decide on whether to greenlight the project on March 19. Now, the allegedly false outcry appears to have jeopardized the endeavor. 
FROM OUR PARTNER
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To get started, just answer a few questions about your home — no phone number required. Within a day or two, EnergySage will email you the best local options for your needs, and their expert advisers can help you compare quotes and pick a winner.
“When comments are submitted under false identities, false addresses, or with misrepresented affiliations, it undermines the credibility of the process and is unfair to residents who participated honestly and in [good] faith,” said Bella Bogin, director of programs at the nonprofit Ohio Citizen Action, a grassroots organizing group.
While it’s frustrating when inaccurate information undermines public trust and processes, you can still take control of your energy journey.
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EnergySage helps the average homeowner save up to $10,000 on solar purchases and installations, with its mapping tool highlighting incentives available based on where you live. All together, EnergySage’s free tools can help you get the best price on solar. 
If you want to gain independence and protect yourself against outages by going off-grid, EnergySage can also help you obtain competitive estimates on battery storage.
💡Go deep on the latest news and trends shaping the residential solar landscape
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IPX Power Launches as Independent Power Producer Following Intersect Acquisition by Google  Business Wire
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The future looks bright.
Photo Credit: iStock
As farmers around the globe are hit by extreme weather, tariffs, and other challenges, some are turning to a “much better” industry practice to make up for lost income. 
Australian farmer Tom Warren is one such farmer, according to Sinar Daily, who has invested in agrivoltaics, the pairing of agriculture with solar panels, leading him to make more than he would with only his sheep. 
Sheep and the wool they produce have been a mainstay of the Australian economy for at least 150 years, but to produce excellent wool, sheep need a constant diet. 
By installing solar panels in the fields where sheep graze, the grass beneath the panels remains green, providing a better diet for the animals. In fact, a study in New Zealand found that sheep grazing beneath solar panels produced wool that was no worse than sheep grazing in open pastures. 
While the sheep graze, those solar panels produce around 20 megawatts of energy to help meet the local community’s demands and bring in money. 
“The solar farm income is greater than I would ever get off agriculture in this area — regardless of whether I have sheep running under the panels or not,” Warren explained, per Sinar Daily.
Warren’s farm is far from the only one to pair sheep and solar panels.
In fact, in the United States, there are organizations that train farmers on solar grazing, such as the American Farmland Trust and American Solar Grazing Association. Farmers in Illinois are investing in solar grazing while encouraging consumption of lamb meat. 
The future of agrivoltaics looks bright, too. 
In the U.S. alone, agrivoltaic sites encompassed 27,000 acres that produced 4.5 GW in 2020. By 2024, those sites had grown to encompass 60,000 acres, producing 10 GW of solar energy. According to the National Laboratory of the Rockies, almost 600 agrivoltaic sites operate in the country.
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Which of these savings plans for rooftop solar panels would be most appealing for you?
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Couldn’t pay me to go solar 😒
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Agrivoltaics not only generates income for farmers and provides sheep with a better diet but also helps reduce energy costs and conserve natural resources, leading to cleaner air and water. 
“As more farmers are starting to adopt renewable or host large-scale renewable on their land and continuing to farm … the more visible it is in the community,” consulting firm Farm Renewables Director Karin Stark told Sinar Daily.
Warren said: “Normally they would seek out trees and camp under the trees, but you can see that the sheep are seeking out the shade of the panels. So, it’s a much better environment for them as well.”
Get TCD’s free newsletters for easy tips to save more, waste less, and make smarter choices — and earn up to $5,000 toward clean upgrades in TCD’s exclusive Rewards Club.
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(The stocks mentioned in the blog are based on Market Capitalisation)
India has great potential for generating solar energy. With around 300 days of sunshine annually, the country could harness solar power equivalent to 748 GW.
India’s solar energy sector has grown significantly in recent years, driven by falling solar panel prices, supportive government policies, and increased environmental awareness. Moreover, the country aims to become a key net exporter of solar energy by 2026.
India produces around 5,000 trillion kWh of solar energy, from which most parts of the country receive 4-7 kWh per square metre per day. Solar power plants in India can generate energy on a distributed basis, enabling additional capacity to be added with short lead times.
In recent years, the decentralised and distributed applications of solar energy have benefited millions of people in rural Indian villages, fulfilling their cooking, lighting, and other energy needs in an environmentally friendly manner. It has led to various social and economic benefits, such as reduced risk of lung and eye ailments.
Additionally, the solar energy sector in India has become a significant contributor to grid-connected power generation capacity, aligning with the government’s agenda for sustainable growth and enhancing energy security.
The Indian government has introduced schemes such as the Production Linked Incentive (PLI) and the Solar Park Scheme to create a conducive environment for solar power development and boost domestic manufacturing. These initiatives aim to achieve economies of scale, make solar energy more affordable and generate employment opportunities. 
India’s installed solar energy capacity (cumulative) touched 105.65 GW by 31st March, 2025, while a record addition of 23.83 GW in solar capacity was seen in FY2024-25, higher than 15.03 GW added in the previous fiscal. By the end of FY25, ground-mounted and rooftop solar stood at 81.01 GW and 17.02 GW, respectively, while off-grid systems accounted for 4.74 GW.
The PM Surya Ghar Muft Bijli Yojana was launched in February 2024 and has encouraged faster adoption of rooftop solar energy. India is reportedly on track to add about 41-45 GW of new solar capacity in FY26, while the first nine months of FY26 saw 30.16 GW of new capacity added. Domestic solar module production capacity under ALMM touched 144 GW per annum in late 2025. Rajasthan leads in capacity, along with Gujarat and then Karnataka. 
The Government is also aiming for 1 crore rooftop solar installations by FY2026-27 under the PM Surya Ghar target. The rapid growth is backing the country’s larger Panchamrit target of 500 GW of non-fossil energy capacity by2030. 
Top Solar Energy Stocks in India in 2026 as per Market Capitalisation
Here is a table outlining the top solar energy stocks in 2026 as per market capitalisation:
Stock
Market Capitalisation (Crore)
Reliance Industries Ltd.
₹18,75,736.03 Cr
NTPC Ltd.
₹3,26,486.75 Cr
Adani Green Energy Ltd.
₹1,27,293.77 Cr
Solar Industries India Ltd.
₹1,14,542.31 Cr
Tata Power Company Ltd.
₹1,10,319.10 Cr
*Our stock selection criteria for top stocks based on Market Capitalisation are mentioned at the bottom of this blog.
Here is a brief overview of the best solar energy companies in India-
Reliance Industries Ltd (RIL) was founded in 1977 by Dhirubhai Ambani and is currently chaired by Mukesh Ambani. It is headquartered in Mumbai, the country’s largest private-sector corporation, and is also a Fortune 500 company. It is a mega conglomerate with operations in retail, energy (oil and gas and petrochemicals), telecom (Jio), media, and more.
RIL operates the world’s largest single-site refinery at Jamnagar in Gujarat. It also serves 480 million+ subscribers via Jio Platforms, and its retail arm is also the largest in India, with a vast store network.
RIL is also making sizable investments in green energy, targeting net-carbon-zero status by 2035. It is also one of the most valuable companies in the country, accounting for about 7% of the country’s total merchandise exports. 
RIL is also rapidly scaling up its new energy business, with significant investments to set up a fully integrated 20 GW solar manufacturing giga-factory at the Dhirubhai Ambani Green Energy Giga Complex in Jamnagar, Gujarat.
The company is also developing one of the largest single-site solar projects in the world in Kutch, with a focus on extensive manufacturing, from modules to polysilicon. It has also invested in NexWafe GmbH to develop affordable, highly efficient monocrystalline green solar wafers. RIL also started its very first solar panel manufacturing line early in 2025. 
NTPC Limited, established in 1975, is India’s largest power-generating company. The company generates and sells electricity to state power utilities on a wholesale basis.
NTPC produces electricity using gas, liquid fuel, coal, and other renewable sources. Moreover, it also provides consultancy services, rural electrification, power trading, coal mining, project management and supervision, ash utilisation, re-gasification, etc. 
NTPC has 51 power stations comprising 27 coal, 7 gas, 15 solar PV, 1 large hydro and 1 small hydro-based stations. Additionally, it has 42 subsidiary and joint-venture power stations, comprising 16 solar PV, 9 coal, 8 hydro, 4 gas, 4 wind, and 1 small hydro-based station. It has an installed capacity of 75,418 MW and aims to become a 130 GW firm by 2032.
Adani Green Energy Ltd (AGEL) is part of the Adani Group and is the country’s largest renewable energy firm, with more than 15 GW of installed capacity (wind, solar, hybrid) by early 2026. It is headquartered in Ahmedabad and is scaling up the energy transition in the country, aiming to reach 50 GW by 2030 across 12 Indian states.
AGEL is also building the world’s largest single-location renewable energy park in Khavda, Gujarat, with a planned capacity of 30 GW, including wind and solar plants. The company works with global banks to fund various projects, including a US$1.8 billion facility in Jaisalmer. 
The company also has a partnership with TotalEnergies, while achieving higher ESG rankings and being listed as 3rd by FTSE Russell in the Alternative Electricity Subsector. The company has posted robust revenue growth, primarily through 25-year PPAs (power purchase agreements) with state and central Government firms. 
Solar Industries India Ltd is a leading global manufacturer of industrial explosives, defence products, and initiating systems tailored for the military, construction, and mining industries. It has a robust global presence while innovating in sectors like loitering munitions.
It is also a leading private player in the country’s defence supply chain. The company manufactures bulk and packaged explosives, propellants, detonators, ammunition, such as Pinaka rockets, and high-energy materials, such as TNT, RDX, and HMX. 
Solar Industries India Ltd operates in more than 80-90 countries, with multiple manufacturing facilities, including the world’s largest single-location packaged explosives unit in Nagpur. It is the country’s first private-sector entity to manufacture HMX, RDX, and TNT.
It has delivered 30mm indigenous ammunition to the Indian Navy, while receiving orders for loitering munition (NAGASTRA-1) and Pinaka rockets. It is also building technologically advanced systems, such as Bhargavastra, the multi-missile firing system. 
Tata Power Company Ltd is the largest integrated power utility in the country, and is part of the Tata Group, one of India’s biggest and most reputable business conglomerates. It is involved in the generation of renewable and conventional power (hydro, solar, wind), as well as in distribution (millions of customers across Delhi, Mumbai, Odisha), transmission, and new-generation solutions such as microgrids, rooftop solar, and EV charging infrastructure.
The company is now focusing on ensuring carbon neutrality by 2045 with a clean energy shift. Along with its 12 million+ customer base throughout India, the company has also pioneered various hydroelectric projects and contemporary energy solutions. 
Founded in 1945, Tata Power Company Ltd manages huge networks, including public-private partnerships. Some of its new-age solutions include solar rooftops for businesses and homes, energy-as-a-service (EaaS), microgrids, and EV charging. While actively scaling up its renewable energy share in India, the company is also on a mission to empower a billion lives through sustainable, affordable and innovative energy solutions. 
Before buying the top Indian solar energy stocks, it is crucial to consider key factors to make an informed decision. Such factors include:
You must evaluate the financial health of the solar energy company, including revenue margins, profitability, cash flow, and other metrics. Look for companies with strong financial metrics.
Various global economic factors can affect the shares of solar companies. For instance, it can result in supply chain disruption, affecting the supply of raw materials and other components for the solar industry. 
Investing in solar stocks in India can be profitable due to the cost advantages of solar power, which is driving a surge in demand for solar equipment. It creates competition; therefore, you must look for solar stocks that have sustainable competitive advantages. 
The government of India has various policies and incentives to support the solar energy market. You must keep a close eye on these policies, as they can significantly shape the future of this industry.
When considering investing in solar energy stocks, it is vital to understand the challenges the solar industry faces. Despite its potential as an alternative energy source, solar development in India encounters several obstacles. These include a lack of research and development infrastructure, resulting in reliance on imports and higher costs. 
Additionally, solar systems require significant initial investment and have long payback periods, which can deter potential adopters. Lack of awareness, especially in rural areas, further hinders widespread adoption. Moreover, issues such as land acquisition and government approvals also contribute to delays in solar plant development. Furthermore, concerns about limited warranty support from implementation partners further complicate the industry’s challenges.
Considering these factors is crucial when evaluating investment opportunities in solar energy stocks.
India’s potential for generating electricity from solar energy is huge. The solar energy sector in India is reliable, as it is backed by the Government of India through multiple schemes and investments.
Remember, if you face an issue while investing in a solar energy stock, you can connect with a financial advisor who can help you select the right stocks.
You may also be interested to know
1.
Best Hotel Stocks in India
2.
Best Indian Railway Stocks in India
3.
Best Textile Stocks in India
4.
Best PSU Stocks in India
5.
Best Pharma Stocks in India
 
*Stock Selection Criteria for Top Stocks Based on Market Capitalisation
These stocks are chosen based on their market capitalization, which represents the total value of a company’s outstanding shares. The selection is arranged in descending order, placing the largest companies first and the smaller ones later. This helps prioritize stocks based on their market size.
It is important to note that market capitalization in no way guarantees a company’s performance or the returns from its stocks. However, it can be used as a criterion for shortlisting companies from within a sector. Investors should recognize that other factors, such as financial health, management efficiency, and market trends, play crucial roles in determining the actual success of an investment. 
This stock selection should not be construed as investment advice/recommendations/offer/solicitation of an offer to buy/sell any securities by Groww Invest Tech Pvt. Ltd. (formerly known as Nextbillion Technology Pvt. Ltd.).
Disclaimer: This blog is solely for educational purposes. The securities/investments quoted here are not recommendatory.
To read the RA disclaimer, please click here

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Bifacial PV modules, string inverters and advanced trackers are becoming the preferred technologies in utility-scale solar project design, according to new data from RatedPower.
Image: Nextracker
From pv magazine Australia
RatedPower data shows that bifacial modules now feature in more than 90% of utility-scale PV projects prepared on its cloud-based solar design platform, while string inverters account for more than 50% of project simulations.
RatedPower, part of US-based data analytics provider Enverus, said technology trends are reshaping the industry with bifacial modules expected to reach 95% market share by 2032.
“Market share is expected to climb from 90% today to 95% within the next decade, driven by performance gains and material efficiency,” RatedPower said.
In its 2026 Global Renewable Energy Trends Report, RatedPower also noted that string inverters are firming as the preferred choice for large-scale solar development, reflecting a shift toward modular and grid‑responsive system designs.
“String inverters now hold 54.2% of the utility-scale on-grid inverter market, driven by their modular design, ease of installation, and cost effectiveness,” RatedPower said, adding that the data also shows a clear shift toward advanced trackers in large-scale solar projects.
“Single and dual-axis tracking systems are particularly attractive for ground-mounted PV installations in regions with high direct irradiation, such as the United States, Brazil, Australia, and Chile,” it said.

The report also said that hybridization of solar and storage is rapidly becoming the preferred model in the energy transition with industry professionals consistently identifying energy storage, flexible dispatch, and improved grid coordination as essential to protecting project economics.
“Platform data confirms rapid growth in hybrid solar‑plus‑storage projects, rising from 12% of simulations in 2024 to 20% by Q4 2025, with AC‑coupled BESS used in 83% of cases,” RatedPower said. “As hybrid systems mature, they promise to mitigate curtailment and stabilize grids, provided policy and market structures keep pace.”
Standalone battery storage is also attracting increased commercial interest with standalone battery energy storage systems (BESS) now representing 3% of total simulations.
RatedPower’s 2026 Global Renewable Energy Trends Report draws on data from more than 64,000 solar and storage projects designed using the company’s software platform over the past five years, representing more than 5.1 TW of simulated capacity.
The company said the report provides a data‑driven view of how renewable energy markets are evolving as deployment accelerates and system constraints intensify.
RatedPower said survey results indicate global renewable momentum remains robust with renewables are on track to supply an estimated 45% of global electricity by 2030, with solar and wind adding close to 1,000 TWh by 2026.

Australia is among the countries with the strongest growth potential, identified by 32% of survey respondents as a high-potential region, edged out by China (37%) only with India (31%), Saudi Arabia (30.1%), and the United States (29.2%) rounding out the top five.
Despite this momentum, challenges persist, including delays, grid bottlenecks, and skills shortages.
“While confidence in the sector’s long‑term outlook remains high, grid saturation and instability and permitting and regulation remain the most cited challenges,” RatedPower said. “Importantly, grid-related concerns have persisted at elevated levels for four consecutive years, underscoring that congestion and curtailment are becoming structural rather than temporary challenges in high-penetration regions.”
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VDE Americas has enhanced its Hail Risk Model with updated wind data to improve early warning and tracker stow strategies for utility-scale solar. CEO Brian Grenko explains how the models influence tracker design and storm response.
Image: Wikimedia Commons
From pv magazine USA
VDE Americas, a California-based solar technical services and analysis firm, has developed an enhanced version of its proprietary Hail Risk Model incorporating newly analyzed wind speed data.
According to VDE, severe storms with wind-driven hail struck dozens of utility-scale solar arrays in 2025. At the same time, catastrophic losses were lower than in previous years due to the operators’ increasing use of weather alert services and adoption of hail-stow modes for their trackers.
Nevertheless, VDE says hail remains the number one high-damage risk facing the solar industry. Insurance industry sources report that hail accounts for 73% of total solar losses despite representing only 6% of loss events. Furthermore, solar operators may not realize they are at risk for hail if their risk analysis does not include sufficient historical weather data.
VDE says the update to its Hail Risk Model provides better early warning of particularly damaging convective storms, which are characterized by greater than 45-mm hail stones. The company has also updated its technical guidance on recommend maximum tilt angle during hail stow. The latter emphasizes the need for structural design consideration for enabling trackers to hold in hail-stow mode under expected severe wind conditions accompanied by damaging hail.
Brian Grenko, president and CEO of VDE Americas, told pv magazine USA that the updated Hail Risk Model and accompanying guidelines is a recognition that large-scale solar projects are entering the mid-life phase of their productivity and considerations are more focused on the long haul. Developers of new-build projects are also becoming more aware of risks from catastrophic hail events.
“Twenty years ago, people really weren’t giving much thought to hail because industry drivers like the renewable portfolio standard in California were new,” Grenko said. “And so, we started building utility scale projects in locations like Southern California and Arizona and west of the Rockies generally where, comparatively speaking, the hail risk is low.”
As utility-scale solar became more economical over time, it expanded into new regions, in some ways chasing solar irradiance to maximize productivity. Once large-scale solar projects appeared east of the Rockies, the incidents of damaging hail events increased more sharply, particularly in the Midwest and South.
“In 2019, the Midway project in Texas was a wake-up call for the industry,” Grenko said. “There was a $70 million insurance claim for a project that was completely destroyed by a severe hail event. The hardening of the insurance industry thereafter led developers to realize, okay, we now need to do something about this.”
An appropriate response required an early warning of potentially damaging hail events and the technical means for a tracking array to position itself to reduce the exposure of the solar panels. The key to better early warning is a more thorough understanding of storm dynamics, statistical frequency, and the interaction of wind and hail.
One of the key issues is that stow modes to mitigate the effects of wind and hail individually are different. Also, stow modes are likely to result in a decrease in energy production, which utility-scale projects are very sensitive to. According to Grenko, VDE’s improved Hail Risk Model is an effort to give operators more effective warning of pending hail events with fewer false alarms and more precise guidance on stow angles for specific types of events.
“When we developed the model originally, we looked at when hail happens and we looked at wind on a large basis,” Grenko said. “Now that we have more experience with single-axis trackers and know that you can stow for hail, we can focus on improving your response strategy. It’s important to understand the profile of wind specifically during hail events in more detail and with more confidence.”
Incorporating more accurate wind data and weather information into the Hail Risk Model is just one part of the equation. Grenko said that enabling trackers to achieve better stow modes may come at the cost of adding materials and components that affect the levelized cost of energy (LCOE) for the project. The trick is designing stow modes for existing arrays that provide statistically better chances of surviving catastrophic hail events with few or no additional physical changes.
At the same time, Grenko said that VDI has been working with many of the major tracker manufacturers to develop different strategies on a product level.
“We have started to see a shift initially with major manufacturers like Array Technologies, Nextpower and GameChange developing product variants that could stow for hail at the max tilt angle instead of flat,” he said. “This has required a lot of re-engineering in their products and re-engineering of the foundations supporting the trackers. Because if you stow at an angle to reduce hail damage, the wind causes the tracker to act as a sail. Obviously, there are cost implications and value engineering involved.”
With LCOE issues front and center on large-scale solar projects, developers, owner-operators, financiers and insurers need more granular information about risks and mitigation strategies. VDE’s enhanced Hail Risk Model and accompanying technical guidance are intended to help solar owners weather potential storms profitably.
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According to the latest IndexBox report on the global Solar Mounting Structures market, the market enters 2026 with broader demand fundamentals, more disciplined procurement behavior, and a more regionally diversified supply architecture.
The global solar mounting structures market is entering a critical decade of expansion, underpinned by the accelerating global transition to renewable energy. As the essential physical backbone for photovoltaic (PV) installations, this market’s trajectory is inextricably linked to solar capacity additions worldwide. Our analysis forecasts robust growth from 2026 to 2035, driven by sustained policy support, declining levelized cost of electricity (LCOE) for solar, and technological innovations that unlock new applications. The market is evolving beyond traditional utility-scale ground mounts to encompass sophisticated solutions for floating solar, agrivoltaics, and complex commercial rooftops. This report provides a comprehensive, data-driven assessment of demand drivers, supply chain dynamics, competitive landscape, and segment-specific opportunities. We examine the interplay between raw material costs, engineering advancements, and regional policy frameworks, offering stakeholders a strategic view of the forces shaping this foundational component of the solar value chain through 2035.
The baseline scenario for the solar mounting structures market from 2026 to 2035 projects sustained, above-GDP growth, fundamentally supported by global decarbonization commitments and solar’s established cost competitiveness. The market outlook assumes continued, though potentially moderating, policy support in key regions, steady technological improvement in system efficiency and installation speed, and a gradual resolution of current supply chain bottlenecks for critical materials like aluminum and steel. Growth will be non-linear, with periods of acceleration linked to major policy initiatives and utility procurement cycles, and potential short-term headwinds from commodity price volatility and trade tensions. The core driver remains the annual volume of new solar PV installations, which is expected to maintain a high compound annual growth rate. Market expansion will be particularly strong in emerging economies where solar is reaching grid parity, and in mature markets through the repowering of older assets and the adoption of dual-use systems like agrivoltaics. Competitive intensity will increase, pressuring margins but driving innovation in lightweight designs, robotic installation compatibility, and circular economy principles for end-of-life recycling.
Utility-scale solar farms represent the largest and most consistent demand segment for mounting structures, driven by competitive auctions and large-scale power procurement. The current market is dominated by fixed-tilt systems in high-irradiance regions, with single-axis tracking gaining significant share due to its energy yield boost. Through 2035, demand will be shaped by the scale of government tenders and corporate PPAs, with key indicators being annual global PV capacity additions (GW) and average project size. The segment will evolve towards higher-efficiency tracking systems, bifacial-compatible structures, and terrain-following solutions as prime flat land becomes scarcer. Demand will also be fueled by the repowering of early-generation solar farms, requiring new mounting structures for larger, higher-output modules. The drive for lower LCOE will pressure system costs but also incentivize innovations that reduce installation time and material use per watt. Current trend: Strong Growth.
Major trends: Rapid adoption of single-axis trackers to maximize energy yield and project IRR, Design optimization for bifacial modules to maximize rear-side irradiance capture, Development of terrain-following and east-west vertical tracking systems for challenging sites, Increased use of high-strength steel and advanced corrosion coatings for longer lifespan in diverse climates, and Integration of digital twins and SCADA systems for operational monitoring and maintenance planning.
Representative participants: Nextracker, Array Technologies, GameChange Solar, PV Hardware, Arctech Solar, and Soltec.
The C&I rooftop segment is characterized by a diverse set of projects on warehouses, factories, and retail buildings, each with unique structural constraints. Current demand is driven by corporate sustainability goals, rising retail electricity prices, and favorable net-metering policies. Key demand-side indicators include commercial electricity rates, corporate CAPEX/OPEX budgets, and the availability of third-party ownership models like leasing. Through 2035, growth will be supported by the expansion of behind-the-meter solar for self-consumption, particularly in energy-intensive industries. The segment demands mounting solutions that are lightweight to avoid roof reinforcement, quick to install to minimize business disruption, and compatible with a vast array of roof types (metal, membrane, concrete). Ballasted systems will remain prevalent for flat roofs, while penetrating systems will evolve with improved waterproofing technologies. The trend towards larger-format modules will require stronger, more adaptable rail systems. Current trend: Steady Growth.
Major trends: Preference for ballasted, non-penetrating systems on large flat roofs to preserve warranties and speed installation, Modular and pre-assembled kit designs to reduce on-site labor and installation time, Growing demand for solutions compatible with standing seam metal roofs without penetrations, Integration with rooftop EV charging and energy management systems, and Increased focus on aesthetics and low-profile designs for visibility-sensitive commercial properties.
Representative participants: Unirac, Schletter Group, Esdec Solar Group, Clenergy, Mounting Systems GmbH, and IronRidge.
Residential solar mounting demand is directly tied to homeowner adoption rates, which are influenced by incentives, electricity costs, and consumer awareness. The current market uses predominantly aluminum rail-based systems designed for pitched roofs, prioritizing aesthetics, ease of installation, and reliability. Key demand indicators include residential PV installation volumes, available tax credits and rebates, and average household energy bills. Through 2035, growth will be sustained in established markets and accelerate in emerging residential sectors, though at a slower pace than utility-scale. Demand will shift towards integrated solutions that accommodate increasingly larger and heavier solar modules. The segment will see innovation in plug-and-play systems, reduced part counts for faster installer throughput, and more robust solutions for high-wind and snow regions. The rise of solar-as-a-service and bundled lease/PPA offerings will also influence product specifications towards standardized, durable designs that minimize long-term maintenance. Current trend: Moderate Growth.
Major trends: Designs favoring aesthetic integration and low visual profile on residential rooftops, Simplified rail-less or shared-rail systems to reduce part count and installation time, Growth of integrated mounting solutions for solar shingles and building-integrated photovoltaics (BIPV), Increased demand for hurricane and high-wind rated mounting systems in vulnerable regions, and Standardization of mounting hardware to streamline installer training and inventory management.
Representative participants: Unirac, IronRidge, Quick Mount PV, EcoFasten Solar, S-5!, and Schletter Group.
Floating PV is a high-growth niche segment, driven by the need to utilize water bodies (reservoirs, lakes, quarries) to save land and benefit from natural cooling, which can boost panel efficiency. Current projects are often on man-made water bodies adjacent to hydroelectric facilities or water treatment plants. Demand is project-specific, tied to the development of large-scale FPV tenders, particularly in Asia. Key indicators include the number and capacity of announced FPV tenders, and R&D investment in pontoon and anchoring technology. Through 2035, this segment is expected to grow rapidly from a small base as technology matures and proves long-term reliability. Mounting structures for FPV are highly specialized, requiring corrosion-resistant materials (often HDPE floats), robust anchoring systems, and designs that withstand wave action and changing water levels. Demand will be driven by countries with high population density and competing land uses, as well as by industries seeking to utilize their water assets. Current trend: Very High Growth.
Major trends: Development of durable, UV-resistant polymer floats and hybrid metal-polymer structures, Innovation in anchoring systems suitable for varied water bed conditions (clay, silt, rock), Designs optimized for walkability and safe maintenance access on water, Integration with hydroelectric facilities to smooth power output and share grid connections, and Focus on environmental impact studies and ecosystem-compatible designs.
Representative participants: Ciel & Terre International, Swimsol, SolarisFloat, NRG Island, Yellow Tropus, and BayWa r.e.
This combined segment covers dual-use applications where mounting structures must serve a secondary function: agriculture compatibility or vehicle shelter. Agrivoltaics involves mounting solar panels at sufficient height and spacing to allow crop cultivation or livestock grazing beneath, optimizing land use. Solar carports provide shade and power generation for parking areas. Demand is currently emerging, driven by pilot projects and specific policy incentives. Key indicators include agricultural energy needs, land value, and regulations promoting dual land use. Through 2035, growth is expected to be high as the economic and societal benefits become clearer. Mounting structures here are more complex and costly, requiring greater height, enhanced durability for agricultural environments, and designs that consider light diffusion for crop health or vehicle clearance for carports. This segment represents a key innovation frontier for the industry. Current trend: High Growth.
Major trends: Structures with adjustable tilt or panel spacing to optimize light sharing for specific crops, Use of galvanized steel and robust foundations to withstand agricultural equipment and long-term outdoor exposure, Pre-fabricated, modular carport designs for scalable deployment in commercial parking lots, Integration with EV charging infrastructure directly into the carport structure, and Research into optimal spectral transmission for different agricultural activities beneath panels.
Representative participants: Schletter Group, GameChange Solar, Ideematec, SunCarrier, Soltec, and Ombrea.
Interactive table based on the Store Companies dataset for this report.
Asia-Pacific will remain the undisputed leader, driven by China’s colossal solar deployment targets, India’s ambitious renewable goals, and rapid growth in Southeast Asia. China’s demand is for both massive utility-scale projects and distributed generation. India’s market is price-sensitive, favoring optimized fixed-tilt and tracking systems. Southeast Asia offers growth from emerging FIT programs and rising electricity demand. The region’s strong domestic manufacturing base for both structures and modules creates an integrated supply chain. Direction: Dominant and Growing.
The North American market, led by the U.S., will see steady growth underpinned by the Inflation Reduction Act’s long-term tax incentives, which support both utility-scale and distributed solar. Demand is sophisticated, with a high penetration of tracking systems in the utility segment and a mature C&I rooftop market. Canada’s growth is accelerating with federal clean energy policies. The market is competitive with strong domestic and international players, and demand is increasingly shaped by domestic content provisions and supply chain resilience concerns. Direction: Steady Growth.
European demand will be resilient, fueled by the REPowerEU plan to accelerate renewable deployment and reduce dependence on fossil fuels. Southern Europe (Spain, Italy, Greece) will lead utility-scale demand, while Germany, the Netherlands, and Poland drive C&I and residential segments. The market demands high-quality, certified products suited to diverse climates and strict building codes. Innovation in agrivoltaics and floating PV is notable. Competition is intense, with a mix of large international firms and specialized regional manufacturers. Direction: Resilient Growth.
Latin America presents an emerging high-growth opportunity, led by Brazil, Chile, and Mexico. Growth is driven by competitive auctions, excellent solar resources, and increasing corporate PPAs. The market is cost-competitive, favoring robust, low-maintenance fixed-tilt systems, though tracking is gaining share in prime locations. Challenges include currency volatility, grid connection delays, and local content requirements in some countries. The region is a key battleground for global suppliers. Direction: Emerging Growth.
The MEA region is accelerating from a low base, with the Gulf Cooperation Council (GCC) countries driving large-scale tender activity for utility solar as part of economic diversification plans. South Africa remains a key Sub-Saharan market. Demand is for ultra-durable systems capable of withstanding extreme heat, sand, and corrosion. The region is a testing ground for high-temperature performance and robotic cleaning integration. While absolute volumes are lower, project sizes are often very large, attracting major global suppliers. Direction: Accelerating from a Low Base.
In the baseline scenario, IndexBox estimates a 9.2% compound annual growth rate for the global solar mounting structures market over 2026-2035, bringing the market index to roughly 240 by 2035 (2025=100).
Note: indexed curves are used to compare medium-term scenario trajectories when full absolute volumes are not publicly disclosed.
For full methodological details and benchmark tables, see the latest IndexBox Solar Mounting Structures market report.
This report provides an in-depth analysis of the Solar Mounting Structures market in the World, including market size, structure, key trends, and forecast. The study highlights demand drivers, supply constraints, and competitive dynamics across the value chain.
The analysis is designed for manufacturers, distributors, investors, and advisors who require a consistent, data-driven view of market dynamics and a transparent analytical definition of the product scope.
This report covers solar mounting structures, the structural frameworks designed to securely fix photovoltaic (PV) panels to a ground surface, rooftop, or other location. The coverage encompasses systems engineered to optimize panel orientation, withstand environmental loads, and ensure long-term stability for solar energy generation across various applications.
Solar mounting structures are classified as fabricated metal structures and parts, falling under broader categories for iron/steel and aluminum constructions. They are typically categorized by their material composition (e.g., steel, aluminum) and primary function as structural components or parts of general use. The classification reflects their role as essential hardware for renewable energy infrastructure.
World
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.
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Independent subsidiary of Flex
Large public tracker manufacturer
Rapidly growing, strong in US
Leading European manufacturer
Strong in EMEA and Americas
Major global tracker supplier
Acquired by Soltec in 2023
Public company, integrated solutions
Leading US rooftop racking provider
Strong in APAC, global supplier
Leading flat roof & rail systems
Major European rooftop specialist
Part of Gonvarri Solar Steel
Large fixed structure producer
Major Chinese manufacturer
Large volume manufacturer
US-based structure provider
Strong in Latin America
Part of Gonvarri Industries
Major US roofing & solar integrator
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What will it take for solar power to take off in the Philippines?  Rappler
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The Western Australian government has unveiled an AU$153.3 million (US$109 million) ‘Made in WA Energy Affordability Investment Program (MEAIP)’ designed to accelerate decarbonisation across the state’s manufacturing sector through low-interest loans of up to AU$15 million per business.
The programme, announced by state premier Roger Cook, represents the government’s response to concerns raised at last year’s Trade and Economic Resilience Roundtable, where energy affordability emerged as the primary challenge facing local manufacturers.
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Applications will open in July 2026, with businesses able to access funding for commercial solar installations, industrial battery storage systems, energy-efficient manufacturing equipment and workforce training programmes. The loan scheme specifically targets manufacturers in the clean energy and critical minerals sectors.
“We want to grow manufacturing in Western Australia,” Cook said.
“By manufacturing businesses embracing renewable energy, storage and more energy-efficient processes, it will put downward pressure on the price of producing what they produce, making WA-made products more affordable for WA consumers, and more competitive for export markets.”
The initiative forms part of Western Australia’s broader renewable energy expansion, which has seen major investment in utility-scale projects, including Fortescue’s construction of the state’s largest solar PV power plant and an ambitious 70GW renewables hub development advancing with international partnerships.
Since 2025, the state government has committed more than AU$1.4 billion to initiatives to develop manufacturing capability and capacity across Western Australia.
Energy and decarbonisation minister Amber-Jade Sanderson emphasised the programme’s role in supporting both manufacturers and households.
“Our government’s investment in big batteries and household battery storage is already putting downward pressure on household energy prices,” she said.
“By helping local manufacturers access industrial batteries, as well as other energy efficiency measures, we will continue to ease cost pressures for Western Australian households while creating jobs and diversifying the state’s economy.”
The inclusion of battery energy storage systems (BESS) in the programme also builds on the success of Western Australia’s residential battery scheme, which has been reducing household energy bills across the state. By encouraging industrial battery storage adoption alongside commercial solar installations, the MEAIP aims to smooth demand peaks and add storage capacity to the grid, adding stability to the state’s energy prices.
Western Australia’s manufacturing sector has been increasingly focused on renewable energy integration, with projects like Yindjibarndi Energy Corporation’s renewable energy offtake initiatives in the Pilbara and fast-tracked solar-battery developments demonstrating growing momentum in the sector.
By increasing battery storage deployment and improving energy efficiency across the manufacturing base, the initiative aims to support grid stability while enhancing the competitiveness of Western Australian products in both domestic and export markets.
With the state’s economy continuing to perform strongly, the programme positions local manufacturers to capitalise on growing demand for sustainably produced goods while reducing operational costs through renewable energy adoption.
Businesses interested in participating can register their interest ahead of the July 2026 application opening through the Department of Energy and Economic Diversification.
The Energy Storage Summit Australia 2026 will be returning to Sydney on 18-19 March. It features keynote speeches and panel discussions on topics such as the Capacity Investment Scheme, long-duration energy storage, and BESS revenue streams. Premium subscribers to our sister site Energy-Storage.news can receive an exclusive discount on ticket prices. 
To secure your tickets and learn more about the event, please visit the official website.

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US Solar Installations Drop 14% in 2025, But Manufacturing Capacity Surges 50%|Markets & Policy  Solarbe Global
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GREW Solar announced a ₹500 crore repeat order for its high-efficiency PV modules from a leading Independent Power Producer (IPP). This significant deal validates GREW Solar's strategic expansion of manufacturing capacity, including its 6.5 GW module facility in Rajasthan and planned 8.0 GW cell facility in Madhya Pradesh. The order supports upcoming utility-scale solar projects, showing growing confidence in GREW Solar's operational execution and technology in India's competitive renewable energy market.
The announcement of GREW Solar's ₹500 crore repeat order from a key Independent Power Producer (IPP) is a significant endorsement of the company's accelerating vertical integration strategy. This repeat business highlights GREW Solar's growing capacity to meet the demands of large solar projects, especially as India's solar manufacturing sector expands rapidly.

Market Context and Capacity

GREW Solar's order for its high-efficiency PV modules underscores growing demand for domestic solar components. The company's operations include a 6.5 GW module plant in Rajasthan, with plans to expand to 11.0 GW, and an 8.0 GW solar PV cell facility underway in Madhya Pradesh. These facilities position GREW Solar as a key player in a market rapidly scaling domestic production. As of late 2025, India's total solar module manufacturing capacity had surpassed 144 GW, with projections reaching 172 GW by 2026. Competitors like Waaree Energies operate over 20 GW of module capacity in India, while Adani Solar aims for 10 GW by mid-2026. This repeat order shows GREW Solar's expansion and technology are appealing to major market players.

Policy Drives Sector Growth

The Indian solar market is driven by government incentives like the Production Linked Incentive (PLI) scheme. This policy framework has boosted capacity additions, with module manufacturing alone projected to exceed 172 GW by 2026. While the market installed approximately 35 GW in 2025 and is expected to add another 42.5 GW in 2026, a gap persists between module production capacity and domestic cell manufacturing. GREW Solar's planned 8.0 GW cell facility addresses this gap, crucial with the upcoming enforcement of the Approved List of Models and Manufacturers (ALMM) List-II from June 2026. However, the sector faces challenges, including concerns about potential overcapacity and reliance on imported polysilicon and wafers.

Competitive Pressures and Risks

Despite positive news, significant challenges exist for GREW Solar. Intense competition from larger players like Waaree and Adani Solar pressures GREW Solar's margins and market share. GREW Solar's expanding capacity is still smaller than industry leaders, potentially affecting its negotiating power for future contracts. The sector's rapid capacity build-up driven by the PLI scheme means module manufacturing capacity could exceed domestic demand, raising concerns about oversupply and inventory buildup. India's underdeveloped polysilicon and wafer manufacturing leaves it dependent on imports and vulnerable to supply chain disruptions. Analysts at Anand Rathi initiated coverage on Vikram Solar with a 'Hold' rating, noting long-term growth potential alongside sector risks. Disruptions in policy or falling global module prices could impact GREW Solar as it scales operations.

Outlook

Analysts expect India's renewable energy sector to see continued long-term growth, driven by government targets and demand across segments like C&I and rooftop solar. While this order validates its strategy, GREW Solar must navigate a competitive market with larger peers and upstream supply chain challenges. The success of its planned cell facility expansion is key to achieving cost efficiencies and supply chain resilience for sustained competitiveness.

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In its second monthly column for pv magazine, the Becquerel Institute explains that Europe has vast commercial and industrial rooftops suitable for solar, but decades-old structural limits block conventional PV panels, creating an 85 GW untapped potential. Lightweight PV modules, commercially available and up to 50% lighter, can unlock this constrained market, meeting regulatory, economic, and technical needs for solar deployment across the continent.
Image: Becquerel Institute
Walk around any European industrial estate and the rooftop PV story is hiding in plain sight. Kilometre after kilometre of (nearly) flat metal roofing (warehouses, logistics hubs, stores, manufacturing) with no PV panels in sight. It is not for lack of sunshine, or policy support, or investor appetite. It is because these buildings have often been constructed decades ago and sized, for cost reasons, to meet the load and overload standards of the time, with no allowance for the additional load of a future solar PV installation.
This is Europe’s rooftop solar paradox: a continent pushing hard toward 100 GW of annual PV additions, yet sitting on a vast rooftop area it cannot practically use. Our analysis at Becquerel Institute puts the scale of this constrained potential at more than 85 GW. A capacity that is technically accessible today, but locked out by one factor: the weight of conventional solar PV modules.
Standard PV panels weigh more than 10 kg per square metre, depending on glass thickness and whether modules use glass-glass or glass-backsheet configurations. For a significant share of Europe’s industrial building stock, particularly older warehouses, logistics centres, and agricultural facilities, these loads exceed the structural limits of existing roofs. Reinforcing those structures is technically possible, but in most cases the economics simply do not stack up.
Lightweight PV modules address this directly. Generally, they are at least 50% lighter than conventional PV panels, so that they can be installed on structures that would otherwise require costly reinforcement or remain off-limits for solar altogether. In many cases, they can be adhered directly to the roof surface, eliminating the need for mounting structures . The technology is not experimental, it is commercially available today, and it is opening up a frontier that conventional PV cannot reach.
A large and largely untapped market
European Union’s PV market has grown at a remarkable pace. Annual installations tripled between 2020 and 2025, reaching more than 65 GW last year, with 100 GW per year in sight by 2030. Growth has been broad-based, with Germany, Spain, and Italy leading, but meaningful contributions now come from across the continent. Rooftop and ground-mounted PV segments have expanded in roughly equal measure, and the commercial and industrial (C&I) rooftop segment is increasingly central to the growth story.
But as the most accessible rooftops fill up, a new constraint is coming into focus. In mature C&I markets (Benelux, Germany, Austria, …), the “easy” installations are slowly but surely reaching saturation. What remains is a large pool of buildings that the industry has, until now, largely passed over.
Becquerel Institute’s assessment of the lightweight PV opportunity is based on a multi-step methodology: starting from the gross technical rooftop potential of commercial and industrial buildings across Europe, then layering in building-level characteristics (roof typology, surface area, existing rooftop occupancy) and finally applying country-specific factors including construction materials, renovation rates, building age, and climate considerations such as snow loads.
The result is a realistic estimation of the addressable potential, amounting to 38 GW on industrial buildings and 48 GW on commercial buildings, for a combined total exceeding 85 GW. This is not a theoretical ceiling, it is a conservative estimate of what could be deployed on existing buildings, without structural upgrades, using lightweight modules available today.
Image: Becquerel Institute via solarintelligence.ai
The geographic distribution reflects building stock characteristics as much as solar irradiance. Spain holds the largest theoretical potential, driven by the sheer scale of its C&I building base. Italy and Germany follow closely, where ageing industrial stock and stringent snow-load norms push a high share of rooftops into the weight-constrained category. France represents an interesting case: a large industrial building stock but historically slow C&I rooftop adoption, the combination of the new energy regulations (obligation to solarise large commercial car parks, new buildings) and growing awareness of structural constraints may accelerate lightweight PV uptake significantly. The Benelux markets, particularly the Netherlands, are worth watching closely: flat roofing is ubiquitous, the C&I sector is dense, and local manufacturers are creating an integrated supply-and-install ecosystem that could serve as a model for other markets.
A market pushed by regulation and price volatility
Two forces are converging to make that pool of overlooked buildings increasingly hard to ignore. The first is regulatory. The revised Energy Performance of Buildings Directive (EPBD), published in summer 2024, gave Member States two years to transpose it into national law, a deadline that is now approaching, meaning concrete solar obligations for commercial and industrial buildings are either already in force or about to be in most European markets, obligations that cannot always be met through carports or ground-mounted systems alone. For building owners suddenly facing a mandatory solarisation requirement on a structurally constrained roof, lightweight PV shifts from a niche option to the only compliant solution. This is particularly true for heavy energy consumers in the industrial sector, where certain regional regulations are already mandating on-site solar deployment, Flanders in Belgium being a notable example.
The second force is economic. European industrial electricity prices have proven acutely vulnerable to geopolitical shocks: the 2022–2023 energy crisis triggered by Russia’s invasion of Ukraine sent prices to historic highs, forcing many C&I operators to reassess their exposure to wholesale market volatility. More recently, renewed tensions in the Middle East have served as another reminder that energy price stability cannot be taken for granted. For C&I building owners, on-site solar generation is increasingly not just an ESG commitment or a cost optimisation play, it is a hedge against a risk that has shown it can materialise with little warning.
Mature and diversifying technology options
The technology itself is no longer niche. Lightweight PV modules are available in both rigid and flexible formats, predominantly using c-Si cells, with thin-film alternatives based on CIGS present in the market for specific applications.
The European manufacturing landscape is more dynamic than it might appear from the outside. Becquerel Institute tracks around 20 active lightweight PV module manufacturers across Europe, with Germany and France leading in number of players, followed by Austria, Italy, the Netherlands, and Poland (see chart below). It is worth noting that these figures encompass manufacturers across all target segments, i.e. C&I rooftop but also non-grid connected applications, and across all available technologies, from rigid and flexible c-Si to thin-film solutions. Several of these companies have emerged in the past three to five years, a sign that the market opportunity is being taken seriously.
Some have announced capacity expansion plans, pointing to a supply chain that is beginning to mature. Chinese manufacturers are also increasingly present, bringing competitive pricing but raising questions on quality and durability in some cases.
Image: Becquerel Institute via solarintelligence.ai
Beyond rooftops: the IPV opportunity
While C&I rooftops represent the core opportunity, lightweight PV is finding application across a broader range of surfaces. In building-integrated photovoltaics (BIPV), modules are incorporated directly into roofing products at the manufacturing stage, turning the building envelope itself into a power-generating surface. In vehicle-integrated photovoltaics (VIPV), low weight and flexible form factors make these modules suitable for buses, trucks, and commercial vehicles, where they power auxiliary systems and meaningfully reduce fuel consumption. Infrastructure applications (IIPV), such as bus shelters, carports, or solar canopies, represent a further emerging channel, particularly where structural constraints rule out conventional modules.
It is worth noting that not all players are targeting the same end market. A meaningful share of European lightweight PV manufacturers is focused on VIPV applications (boats, trucks, campervans, and smaller commercial vehicles) rather than grid-connected rooftop PV installations. These are real markets, but they operate on different volume assumptions, certification requirements, and sales channels than C&I rooftop solar. For investors and project developers evaluating the supply chain, understanding which manufacturers have a genuine C&I rooftop offering, with the installation track record, warranties, and bankability documentation that entails, is a critical due diligence step.
Rethinking the cost comparison
Installation approaches vary but share a common logic: reduce structural load and simplify deployment. . This simplification has a direct cost consequence: even though lightweight module costs remain higher than standard c-Si panels, reflecting lower production volumes and more specialised materials, the total installed cost picture is more nuanced than the module price alone suggests. More fundamentally, on structurally constrained buildings the relevant comparison is not lightweight PV versus conventional PV, it is lightweight PV versus no solar at all. In that framing, the economics are often straightforward, and they will only improve as volumes grow and the module cost premium narrows.
From quality to bankability
One question Becquerel Institute hears consistently from asset owners and investors: how durable are these systems? Are they bankable?
While lightweight PV has made significant progress on performance and reliability, allowing to pass all the required testing procedures, the installation quality remains the critical variable.
Unlike conventional PV, where mounting systems are well standardised, lightweight solutions often involve adhesive bonding, specialised surface preparation, and roofing-material compatibility that demands careful execution. Most serious manufacturers work with specially trained installers, in-house teams, or have developed partnerships with established building industry players, precisely to control this risk. . When properly executed, with due attention to potential areas of stagnating water, cable management, lightweight PV systems can deliver reliable long-term performance
For these very reasons, innovations and adaptations at module level are constantly flowing, with for example modified front or back layers (some preferring composites to glass), minimal framing in some cases, or new adhesive systems tested for long-term roof compatibility. For asset owners specifying these systems, due diligence on the manufacturer’s installation protocol is as important as the module datasheet. The technology is ready, and the supply chain around it is maturing.
The policy tailwind
Finally, the regulatory environment is beginning to move in favour of European manufacturers. The Net Zero Industry Act (NZIA), now being reinforced by the Industrial Acceleration Act, introduces made-in-EU requirements applying to public procurement but also auctions and support schemes. Plus, some countries like Austria and Italy are in advanced phases of domestic manufacturing support aligned with the NZIA framework. More are expected very soon (Germany, Spain).
For lightweight PV, a segment where European manufacturers are genuinely competitive, this creates a meaningful policy lever. It will not transform the market overnight, but it adds commercial certainty for manufacturers investing in capacity, and for project developers building pipelines on European supply chains.
The next frontier
Europe’s rooftop solar PV story is not finished, it is entering a more complex, more interesting chapter. The obvious installations are largely done. What remains requires smarter technology, sharper market intelligence, and a willingness to engage with buildings that do not fit the standard template.
Lightweight PV is not a niche workaround. It is, increasingly, the frontier and at 85+ GW of addressable potential across European commercial and industrial buildings, it is a frontier worth taking seriously.
Authors: Philippe Macé, COO, Becquerel Institute and Caroline Plaza, Managing Director, Becquerel Institute France
Becquerel Institute is a strategic consulting company and applied research institute specialising in solar photovoltaics and energy transition. Founded in Brussels in 2014, with regional offices in France, Italy, and Spain, the Institute provides strategic advice across all segments of the PV value chain and is a recognised partner in European and international research programmes. Becquerel Institute has recently launched Solarintelligence.ai, an AI-powered platform giving PV stakeholders immediate access to verified, actionable market intelligence.
 
 
 
 
 
 
 
 
 
The views and opinions expressed in this article are the author’s own, and do not necessarily reflect those held by pv magazine.
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The US installed 43.2GW of new solar PV capacity in 2025, a 14% decrease from the previous year, according to data from the Solar Energy Industries Association (SEIA) and Wood Mackenzie.
The joint Solar Market Insight Report 2025 shows that the trade and domestic policy shifts of the last year had a tangible impact on the US solar industry, causing “project delays and cancellations across all segments”, but forecasts predict that installation figures will remain relatively stable for the next decade.
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The utility-scale solar sector declined the most in 2025, dropping by 16% year-on-year (YoY) compared with 2024 to 34.7GW. The report said that the first three quarters of 2025 saw almost the same installation rates as the equivalent period in 2024, but that in Q4 “substantially fewer projects that were originally slated” actually materialised.
The utility-scale sector shrank almost 40% between Q3 and Q4, the report said, as a direct result of the policy changes in the Trump administration’s ‘One, Big, Beautiful Bill Act’. “Revised tax credit timelines and safe harbour dynamics reduced the imperative to interconnect by year-end,” the report said, as “developers focused on safe harbouring as much of their pipelines as possible.”
Achieving safe harbour requires meeting the threshold for the “start of construction” laid out by the Treasury last year, then giving a four-year window to complete construction.
This means larger projects must have met the threshold by 4 July 2026, or have done so by the end of 2025 in order to avoid Foreign Entity of Concern (FEOC) restrictions. Failure to meet these requirements will remove access to the current tax credits for solar projects.
“As developers shifted their focus towards safe harbor strategies, there was less urgency to bring late-stage projects online by year end,” the report said. “This weakened fourth quarter deployment but created a more robust near-term pipeline for 2026 and 2027.”
The residential market remained largely consistent from 2024 to 2025, declining just 2% to 4,647MW. The rush of residential installations that was expected before the 25D tax credit expired did not manifest itself, the report said, as “there simply wasn’t enough time to meaningfully ramp up sales and installations after the passage of the OBBBA.”
As well as time, SEIA and Wood Mackenzie said that equipment delays and shortages in the residential sector hampered its growth and put the brakes on a project construction surge.
By contrast, the commercial & industrial (C&I) solar segment grew by 6%, reaching 2,345MW in 2025. This was driven by the ongoing pipeline of legacy Net Energy Metering 2 (NEM 2.0) projects coming online in California, with preferential rates for solar energy repayments.
Community solar declined the most, by 25%, due to expected drop-offs in project pipelines from Maine and New York, which have been significant states for the community solar market.
By contrast to turbulent deployment figures, the report said 2025 was a “monumental” year for US solar manufacturing.
Solar cell capacity continued to expand, following in the footsteps of the massive expansions in module manufacturing capacity built in 2023-24. The first wafer manufacturing capacity in the US since 2016 came online in 2025, via Corning’s facility in Michigan.
Looking forward, the Foreign Entity Of Concern (FEOC) restrictions may be a fly in the ointment for US solar manufacturers. Despite the interim FEOC guidance released by the Treasury last month, “critical uncertainties remain,” the report said.  This includes specific criteria around the involvement of certain foreign entities in designated manufactured products, for which the report said “No timelines have been given, and since the construction-start deadline is July 2026, future guidance may come out too late for the industry to act upon it.”
Despite these complications, the report forecasts that the US solar market will nearly triple in size over the next decade, adding 490GW to reach 769GW.
Variations in the outcome will be dictated by FEOC rules, demand growth from data centres, federal permitting reforms and changing tariff rules. All of these factors entail uncertainties which could impact the growth of the market. Read SEIA and Wood Mackenzie’s full report and forecasts here.

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Researchers have created a dual-layer coating for solar panels that repels water, dust, and dirt while allowing light to pass through, according to a report from pv magazine. The coating does not contain per- and polyfluoroalkyl substances, commonly known as PFAS or forever chemicals.
The coating is described as transparent and superhydrophobic. It combines a base adhesive layer with hydrophobic silica nanoparticles. When applied, these particles create microscopic surface roughness. This roughness traps air, causing water to form beads that roll off the surface and carry away dirt, resulting in a self-cleaning effect.
In laboratory tests using glass slides, the coating demonstrated a high water contact angle and a low sliding angle. It also showed strong light transmittance. The coating exhibited durability against abrasion, sand impact, and water droplet impact, and maintained stability in neutral and acidic environments during testing.
When the coating was applied as cover glass for photovoltaic cells, it resulted in an increase in the cells’ efficiency. The research was conducted by an international team including scientists from institutions in China, India, and the United Kingdom. The team’s stated next focus is to test the coating on panels in various extreme weather conditions, with an aim to bring a product to market within five years.
This report provides a comprehensive view of the reaction initiators and accelerators industry in China, 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 reaction initiators and accelerators landscape in China.
The report combines market sizing with trade intelligence and price analytics for China. 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 China. 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 reaction initiators and accelerators 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 China.
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 reaction initiators and accelerators dynamics in China.
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 China.
Yes, it highlights demand hotspots, trade routes, pricing trends, and competitive context.
Making Data-Driven Decisions to Grow Your Business
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The war in Iran has cast a spotlight again on the dependence on fossil fuels. The electric grid is under growing demand, but the Trump administration has worked to roll back subsidies and incentives for some renewable energies. A new industry report finds that solar panel installations dropped by 14% this past year. Science Correspondent Miles O’Brien reports for our series, Tipping Point.
Notice: Transcripts are machine and human generated and lightly edited for accuracy. They may contain errors.
Geoff Bennett:
The war in Iran and the spike in oil and gas prices are again highlighting the world's dependence on fossil fuels and the role that renewable energy sources could play in meeting future needs.
At the same time, demand on the U.S. electric grid continues to grow, but the Trump administration has moved to rollback subsidies and incentives for some renewables, including solar. A new industry report finds solar installations fell 14 percent over the past year.
Our science correspondent, Miles O'Brien, reports on the effort to build more capacity for the nation's power needs. It's part of our periodic series Tipping Point.
Miles O’Brien:
Forty miles south of San Antonio, Texas, near the small town of Christine, the San Miguel Electric Cooperative Plant, built more than 40 years ago, burns lignite coal, the lowest-grade, most carbon-intensive fossil fuel.
The lignite is strip-mined from the land surrounding the plant, feeding a relentless loop of extraction, combustion, and air, water, and climate pollution.
Craig Courter was the general manager and CEO.
Craig Courter, Courter Energy LLC:
It's harder to burn, takes a lot more furnace, takes a lot more prep. It is hard to make electricity from lignite.
Miles O’Brien:
Courter invited me over for his famous brisket. He's good at fanning all kinds of flames to suit his desires. While we savored his delicious output, he told me about his ambitious plan to replace the old coal plant with solar photovoltaics.
Craig Courter:
They're getting cheaper and cheaper. They are competitive, and a lot of people like them. The cooperative model is, how can we produce this reliably at the lowest cost possible for our end customer?
Miles O’Brien:
And solar is now the cheapest option. To match the output of the old coal plant, Courter planned a 400-megawatt solar farm, paired with 200 megawatts of battery storage.
During the Biden years, he secured a $1.4 billion federal loan to fund the transition through a program created by the Inflation Reduction Act. While the San Miguel Cooperative has not had its loan clawed back, the Trump administration is determined to unwind Biden's push toward renewables.
President Donald Trump:
We're getting rid of the falsely named renewables. By the way, they're a joke. They don't work.
Miles O’Brien:
Despite the rhetoric, coal-fired power plants now account for only about 16 percent of U.S. power generation, while utility-scale solar is the fastest-growing source. Almost 70 gigawatts of new capacity are slated to come online in the next two years. Worldwide, solar is now the dominant source of new power coming onto the grid.
Craig Courter:
As time progresses, I've seen energy go from extremely dirty to very clean.
Miles O’Brien:
The transition project in Christine is still on track, even though Courter has moved on. He's now in the business of helping tech companies find locations and determine the best generation method for power-thirsty data centers.
Craig Courter:
It's a new gold rush. You have everybody and their dog trying to jump into the data center and A.I. game.
Miles O’Brien:
To meet urgent data center demands, energy experts say new renewables, along with natural gas generation, will have to be deployed as quickly as possible. And yet:
Craig Courter:
They're out at 2027 to 2030 and beyond to be able to deliver these gas turbines that we need.
Miles O’Brien:
A utility-scale solar project can be online in one to two years. Building a gas plant takes much longer. The waiting list to buy a gas turbine generator is now at least three years and in many cases twice that. Site selection and permitting add even more time.
But the experts say wind, solar and battery storage are not yet able to deliver the 24/7 power the A.I. industry demands.
GE Vernova, one of the world's largest gas turbine suppliers, is working through a backlog exceeding 80 gigawatts. Pablo Koziner is the chief commercial and operations officer.
So it's a good time to be in the gas turbine business, isn't it?
Pablo Koziner, Chief Commercial and Operations Officer, GE Vernova: It's a great time to be in energy.
Miles O’Brien:
For the past 20 years, the business has grown about 1 to 2 percent a year. But the flat line is now a hockey stick, along with the demand.
Pablo Koziner:
So, in the U.S. alone, what we expect is that we will need 50 percent more electric power in the next 20 years. That's a staggering number. And we haven't seen that type of growth since the 1950s, right after World War II.
Miles O’Brien:
Tech companies are demanding many gigawatts of power as soon as possible.
Bobby Hollis, Vice President of Energy, Microsoft: This is absolutely a new moment for the U.S. energy sector.
Miles O’Brien:
Bobby Hollis is the vice president of energy at Microsoft. The company has struck a power purchase deal with the owner of the Three Mile Island nuclear plant in Pennsylvania. It would mean a mothballed reactor there would come back online to generate power for A.I.
What are the projections you see for the rising demand for artificial intelligence, large language models?
Bobby Hollis:
We know that there's for sure growth happening on the A.I. sector. We know it's going to be larger probably than cloud is now, but cloud is still in the single digit percentages as far as global energy consumption.
Miles O’Brien:
Others are offering more specific guesses. OpenAI CEO Sam Altman recently predicted that his company alone could consume 250 gigawatts of electricity by 2033, roughly equivalent to India's current total power capacity.
Sam Altman, CEO, OpenAI:
In terms of long term strategic investments for the U.S. to make, I can't think of anything more important than energy.
Miles O’Brien:
Tech companies are scrambling to find data center locations. One of the biggest moves so far, Microsoft's $7 billion investment in Mount Pleasant, Wisconsin, where it is building one of the largest and most powerful data centers in the United States.
Bobby Hollis:
Wisconsin presented an incredible opportunity for us to come in because there was surplus capacity and surplus infrastructure that could serve us quickly and allow us to build and to do it in a way that actually reduced costs for those customers.
Miles O’Brien:
But Microsoft is facing strong opposition to many proposed projects. There are concerns about increased carbon emissions, water consumption and the rapidly rising cost of electricity.
In Wisconsin, the company is vowing to foot the bill for grid upgrades, transmission, and additional generation capacity needed to serve its load. In some states, regulators are requiring their most power-hungry customers to absorb the added cost. But in other unregulated states, that is not the norm.
Energy analyst Katherine Hamilton:
Katherine Hamilton, Cornell Atkinson Center for Sustainability: Whether it's transmission build out or distribution build-out or new power plants, all customers foot the bill for that.
Miles O’Brien:
Residential utility bills have risen almost 30 percent since 2021. But Hamilton says data centers are just one of many reasons.
Katherine Hamilton:
Prizes are going up because of wildfire mitigation. Utilities are investing in storm recovery. This is where things like the tariffs make a big difference, because there's a lot of equipment out there that is in a global market that we're having trouble getting at a good cost.
Miles O’Brien:
In addition, utilities nationwide have been investing heavily in upgrading our century-old grid. As it turns out, GE's fastest growing business is building all the devices that connect power plants to the grid, transmission equipment, energy storage, and software to improve efficiency.
Pablo Koziner:
That's a very quick way to release more capacity. Now, some of that you can do with the help we provide through software and upgrades and transmission. But a lot of that also depends on regulation and permitting and a lot of other things that have to enable that.
Miles O’Brien:
The country is suddenly hungry for more power, much more. It's an urgent need that can be met. But experts in the industry, like Craig Courter, say it won't happen unless others start thinking out of the political box, like they are at the San Miguel Electric Cooperative.
For the "PBS News Hour," I'm Miles O'Brien in Christine, Texas.
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HELLENiQ ENERGY Holdings has completed the commissioning and commencement of commercial operations of two solar photovoltaic parks in southern Romania with a combined capacity of 58 MW, the Greek energy group announced. The plants form part of a 2023 agreement with METLEN for the construction and acquisition of four photovoltaic parks totalling 211 MW. The […]
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The new battery park will be constructed by WiSo Engineering, an Estonian company, in the proximity of the existing Kirikmäe solar park and integrated as a whole with the production unit. 
This hybrid solution allows for storing the electricity produced in the solar park and to supply it to the market as needed by the electricity system and electricity market, the company said in a statement.
The plant will be completed in the second half of 2026, with operation immediately commencing on various energy markets. 
Upon completion, the hybrid system will allow for storing solar power and providing important services with regard to grid stability, eg arbitrage and various frequency markets. 
The Kirikmäe solar park in Western Estonia covers 110 hectares (272 acres) and has a generating capacity of 77.53 megawatts, will provide enough electricity to power 35,000 homes each year.
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10 March 2026

Certa has agreed its first two deals as part of a plan to deliver €50 million worth of solar energy projects and 50 megawatts (MW) of solar PV power to Irish businesses through its new Solar-as-a-Service (SaaS) offering. This is expected to generate about 50 gigawatt-hours (GWh) of clean energy annually, enough to power approximately 12,000 Irish homes each year.
The offering is delivered through Certa-owned Alternative Energy Ireland (AEI), which will manage the installation and ongoing maintenance of each new solar energy project to ensure they achieve 90% of their expected energy output annually, with real-time monitoring.
The first customer, Jabil, specialises in the design, development, and commercial scale-up of healthcare products for pharmaceutical, medical device and diagnostic companies. In a deal valued at €1.2 million, it is installing 3,000 rooftop solar PV panels at its premises in Bray, Co. Wicklow where it employs 450 people. The 1.5MW solar system will generate 1.3-million-kilowatt (kWh) units of renewable solar power annually for the next 25 years. It will also reduce carbon emissions by 360 tonnes each year.

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Secondly, Lindab, one of Europe’s leading suppliers of energy-efficient ventilation systems, building solutions and accessories has signed a deal valued at €200,000. The company is installing 400 rooftop solar PV panels across its three sites in Dublin. The 178-kilowatt (kWh) solar system will generate 165,000-kilowatt (kWh) units of solar power annually and will reduce carbon emissions by 44 tonnes each year.
SaaS supports Ireland’s ambition to realise its climate change targets of generating 80% of electricity from renewable sources by 2030, as well as a 51% reduction in greenhouse gas emissions by 2030 relative to 2018 levels.
Orla Stevens, managing director, Certa Ireland, said: “Our SaaS model is designed to help businesses adopt solar energy and to overcome the barriers to adoption, including limited access to capital to finance the initial high cost of installing renewable energy infrastructure, and the ongoing financial commitment that is required to maintain the solar power technology.”
Steven Bray, managing director, Alternative Energy Ireland, said: “Solar-as-a-Service makes it easy for businesses to harness the power of solar energy without the cost of purchasing and maintaining the technology. The service includes a single monthly fee and a service level agreement for the duration of the contract. It is a win-win for Irish businesses with the other benefits including significant energy savings and a reduced carbon footprint.”
Certa Ireland is headquartered in Portlaoise, Co. Laois, employs more than 370 people nationwide and is part of DCC plc.
TechCentral Reporters
Read More: Alternative Energy Ireland Certa Deals done Green sustainability

Jabil, Lindab deals worth a combined €1.4m
Nscale, already valued $14.6bn, wants to deliver the infrastructure behind ‘superintelligence’
Project to deliver wrap-around training and support for more than 1,000 people in Dublin’s docklands
Cost of meeting AI demand has human toll
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The Dunkard Township supervisors unanimously approved the application for a solar farm in Dilliner at its meeting Monday.
The 3.706-megawatt Aquatong Creek Solar Farm is planned to be located on nine acres of private property being leased off of Old Water Works Road.
A project packet prepared by consultants LaBella Associates said the solar farm will consist of rows of fixed-tilt photovoltaic solar modules, a gravel access drive, underground utilities, an equipment pad, utility interconnection equipment and stormwater control features.
Energy captured by the solar panels will be sold to WestPenn Power for use elsewhere on the grid, said Grace Sheaffer, associate project developer for distributed solar and storage with ENGIE North America, which is developing the solar farm.
Projected to have a 25-year lifespan, the farm will operate largely unmanned except for periodic site visits, according to ENGIE. The farm would connect to an existing 25-kilovolt line at Donley Junction about 0.7 miles north, according to a packet provided by the company.
In keeping with Dunkard Township’s solar ordinance, the modules will be around 12 feet high, short of the 18-foot maximum allowed, the ENGIE packet said. Landscaping and fencing will also surround the farm.
Supervisors voted 3-0 to approve the application for the project, which they said had not attracted any pushback from the community.
“We even talked to the people that live close to where this is, and they never complained to us at all,” said board Chairman Rodger Franks.
ENGIE had brought its interest in the solar farm to the township several months ago, Franks said, and that gave the township time to develop a solar ordinance to regulate the farms.
“They’ve been more than willing to comply with anything we’ve asked them,” he said.
That’s included setting a bond for 200% of the decommissioning cost, which will be determined by dollar values assessed by the township’s engineer on its first day and again three years later.
“When the decommissioning comes about, when and if it does, we don’t want it falling back on the township,” said board Co-Chairman Brian Gansor. “We want it solely 100% on them to have to clean this up.”
Sheaffer said there was potential for future developments elsewhere in the area.
“There’s possible developments, but nothing that far developed,” she said.
LaBella Associates have submitted applications with the Greene County Conservation District for National Pollutant Discharge Elimination System and erosion/sedimentation permits. A Highway Occupant Permit application will also be submitted before final land development approval, according to a packet prepared by LaBella.
With the Dunkard Township board’s approval of the application, a site plan and other land development items will be submitted to the Greene County Planning Commission.
Developers expect the project to begin construction next year, with completion targeted for the fourth quarter of 2027.
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© 2025 THE COOL DOWN COMPANY. All Rights Reserved. Do not sell or share my personal information. Reach us at hello@thecooldown.com.
“I work in the industry and know that things don’t work great forever.”
Photo Credit: iStock
The rising popularity of home solar panels is undoubtedly a positive when it comes to cutting down on energy bills and building a more sustainable future. It’s always good to err on the side of caution, however, when venturing into the solar energy landscape for the first time.
Some companies attempt to profit unfairly off their prospective clients by charging absurd leasing rates or installation costs. They may even fail to uphold consistent maintenance clauses in their PPAs, which are also known as power purchase agreements. 
In the r/solar subreddit, one user relayed a dilemma they encountered when buying a home: while most things were in appealing condition, the house came with a solar lease.
Unsure of how to move forward, the Redditor asked for advice, inquiring whether this rooftop addition might serve more as “valuable or liability.”
After all, while installing solar panels can keep your home powered for less each month than the local power grid, signing onto a preestablished solar PPA may not be everyone’s preference.
If you’re looking to remain conscientious while you get started with solar panels, trusted TCD partners, like EnergySage, can help you save thousands of dollars by comparing quotes from local services. 
Unlike straightforward ownership, solar leases require homeowners to pay a monthly utility cost. The homeowner’s utility costs may not go down as much as they would with solar ownership, but leasing solar avoids upfront installation costs.
Whether you go for ownership or leasing, solar panels do have their perks. In addition to reducing demand for polluting energy, going solar can help you significantly reduce how much you pay for energy on a monthly basis.
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If you want to buy your own panels, Palmetto’s advisors can help you save up to $10,000 on installation through a network of preferred installers. And if you’d rather get solar savings without upfront costs, Palmetto’s revolutionary LightReach subscription program can deliver — including an exclusive $1,000 cashback offer for TCD readers.
LightReach lets you lease solar panels with no money down, making it painless to lock in long-term savings of up to 33% off your current power bill. Palmetto covers a 25-year warranty for the panels, which means you’ll get reliable performance without unforeseen costs.
To get started, just book a short meeting with Palmetto’s experts to explore your options and find the solution that’s right for you.
• EnergySage can help you save up to $10,000 on installations by curating competitive bids from local installers 
• Not ready to spend up front? Palmetto’s $0-down LightReach solar leasing program can lower your utility rate by up to 20%
• TCD’s Solar Explorer makes it easy to access exclusive offers from preferred partners
What’s more, solar panels pair exceptionally well with other energy-efficient appliances like electric or hybrid HVACs. They can help you chip away at your utility costs even further. With tools like TCD’s partner Mitsubishi, you can go electric on a budget without compromising on efficiency when it comes to your unique heating and cooling needs.
For all your clean home improvements, the free Palmetto Home app can score you up to $5,000 in rewards when you complete simple, eco-minded challenges.
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Folks in the subreddit were doubtful overall of the solar lease cited by the OP, believing it’s better to design your own solar system from scratch.
“Would I consider buying a house with solar that has already been installed and purchased?” one user wrote. “Probably. But I would want to see performance data over the years. I work in the industry and know that things don’t work great forever.”
“If you want a house with solar on it, buy a house, then put solar on it,” advised another. “Pay cash/don’t finance it. The various solar financing schemes are meant to make someone money — just not you.”
Get TCD’s free newsletters for easy tips to save more, waste less, and make smarter choices — and earn up to $5,000 toward clean upgrades in TCD’s exclusive Rewards Club.
© 2025 THE COOL DOWN COMPANY. All Rights Reserved. Do not sell or share my personal information. Reach us at hello@thecooldown.com.

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1 sun thing: Trump White House still has solar panels  Axios
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Boviet Solar Strengthens Position in U.S. Residential Solar Market with High-Efficiency PV Modules and Expanded Manufacturing  SolarQuarter
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The Perovskite Solar Cell Market is rapidly emerging as one of the most transformative segments in the renewable energy industry. With the global shift toward sustainable energy solutions and increasing investments in next-generation photovoltaic technologies, perovskite solar cells are gaining strong traction across multiple industries.
According to Acumen Research And Consulting analysis, the Global Perovskite Solar Cell Market size reached USD 353.90 million in 2025 and is projected to exceed around USD 7,584.04 million by 2035, expanding at a compound annual growth rate (CAGR) of 35.8% during the forecast period from 2026 to 2035.
Perovskite solar cells represent an advanced photovoltaic technology that uses perovskite-structured materials as the light-absorbing layer. These materials have demonstrated remarkable potential for delivering high power conversion efficiency, lower manufacturing costs, and flexible application possibilities compared with traditional silicon-based solar cells.
This rapid expansion highlights the growing importance of Perovskite Solar Cell Technology in addressing global energy demands while supporting the transition toward low-carbon power generation.
Perovskite solar cells are a class of photovoltaic devices that use materials with a perovskite crystal structure to convert sunlight into electricity. These materials possess unique optoelectronic properties that enable efficient light absorption and charge transport.
Unlike conventional silicon solar cells, perovskite solar cells can be manufactured using relatively simple and cost-effective processes. The technology also offers flexibility in design, allowing solar modules to be integrated into various surfaces and materials.
Some of the key advantages of Perovskite Solar Cells include:
These advantages are driving the rapid adoption of perovskite solar cells across renewable energy projects and advanced photovoltaic research initiatives.
Several important indicators highlight the strong growth trajectory of the Perovskite Solar Cell Market.
These statistics demonstrate the remarkable growth potential of next-generation photovoltaic technologies.
Regionally, Asia-Pacific emerged as the largest market for perovskite solar cells in 2025, accounting for over 40% of the global revenue share.
The region’s dominance can be attributed to several factors, including:
Countries such as China, Japan, South Korea, and India are investing heavily in solar power generation and advanced photovoltaic technologies.
In addition to leading the market in terms of revenue share, the Asia-Pacific region is also expected to remain the fastest-growing market, registering a CAGR of approximately 36.8% from 2026 to 2035.
The region’s strong manufacturing ecosystem and expanding renewable energy policies are expected to continue driving growth in the Perovskite Solar Cell Market.
Based on technology type, Hybrid Perovskite Solar Cells (PSCs) dominated the Perovskite Solar Cell Market, accounting for approximately 70% of the total market share.
Hybrid PSCs combine organic and inorganic materials to create highly efficient photovoltaic devices. These solar cells are widely adopted due to their:
The continued development of hybrid perovskite materials is expected to further enhance the efficiency and durability of solar modules.
As research progresses, hybrid PSCs are likely to remain a key component in next-generation solar technologies.
By structure, Mesoporous Perovskite Solar Cells accounted for the largest share of the Perovskite Solar Cell Market, representing around 65% of the overall structure segment.
Mesoporous structures incorporate a porous scaffold layer that improves charge transport within the solar cell. This design enhances energy conversion efficiency and stability.
The widespread adoption of mesoporous structures is driven by several advantages:
These characteristics make mesoporous structures one of the most widely used architectures in perovskite photovoltaic development.
When analyzed by manufacturing method, the solution processing method accounted for the largest share of the Perovskite Solar Cell Market, holding approximately 51% of total adoption.
Solution-based manufacturing techniques offer several advantages compared with traditional fabrication processes:
These advantages make the solution method a preferred approach for producing large-scale perovskite solar modules.
As research continues to improve material stability and processing techniques, solution-based fabrication methods are expected to play a major role in the commercialization of perovskite solar technologies.
By end-use industry, the Energy and Utilities sector emerged as the largest consumer of perovskite solar cells, accounting for approximately 40% of the total market share in 2025.
Energy utilities are increasingly adopting advanced photovoltaic technologies to expand renewable energy capacity and reduce dependence on fossil fuels.
Key factors supporting the adoption of perovskite solar technology in the energy sector include:
As utilities continue to invest in solar power infrastructure, the demand for high-efficiency photovoltaic technologies such as perovskite solar cells is expected to grow significantly.
Several major factors are driving the rapid expansion of the Perovskite Solar Cell Market worldwide.
Global energy demand continues to rise as economies expand and industrial activities increase. At the same time, governments and international organizations are implementing policies aimed at reducing greenhouse gas emissions.
Solar power has become one of the most important renewable energy sources due to its scalability and sustainability. Perovskite solar technology is expected to play a key role in improving solar energy efficiency and reducing overall costs.
Continuous advancements in photovoltaic materials are improving the efficiency and performance of perovskite solar cells.
Researchers are developing new material compositions that enhance durability, reduce environmental impact, and increase energy conversion efficiency.
These technological improvements are expected to accelerate the commercialization of perovskite solar modules.
Global investments in renewable energy infrastructure are growing rapidly as countries seek to diversify their energy sources and reduce reliance on fossil fuels.
Public and private sector organizations are increasingly funding research and development initiatives aimed at advancing next-generation solar technologies.
Such investments are expected to significantly support Perovskite Solar Cell Market Growth during the forecast period.
One of the most promising developments in the solar industry is the emergence of tandem solar cells, which combine perovskite materials with traditional silicon solar cells.
This hybrid approach enables solar modules to capture a broader spectrum of sunlight, significantly improving power conversion efficiency.
Perovskite solar cells are also gaining attention for their potential applications in building-integrated photovoltaics.
Because perovskite materials can be fabricated into lightweight and flexible structures, they can be incorporated into:
This technology could transform buildings into self-sustaining energy generators.
Despite its strong growth prospects, the Perovskite Solar Cell Market still faces several challenges.
Perovskite materials can degrade when exposed to environmental factors such as moisture, heat, and ultraviolet radiation. Improving long-term stability remains a major focus of ongoing research.
Some perovskite solar cells contain lead, which raises environmental concerns. Researchers are actively exploring alternative materials and improved encapsulation techniques to address this issue.
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California appellate court has affirmed the Public Utilities Commission decision to sharply cut compensation for homeowners and businesses that export rooftop solar electricity production to the grid.
Solar technician on a rooftop.
Image: Wikimedia Commons
The California 1st District Court of Appeal has issued a decision on remand from the state Supreme Court, siding with the California Public Utilities Commission (CPUC) and affirming the current Net Billing Tariff (NEM 3.0) framework.
The ruling marks a major setback for rooftop solar advocates who sought to overturn the 2022 decision that sharply reduced compensation for exported solar electricity.
The case returned to the appellate court after the California Supreme Court issued an opinion in August 2025 directing a re-examination of the CPUC’s decision. The lawsuit, filed by the Environmental Working Group (EWG), the Center for Biological Diversity, and the Protect Our Communities Foundation, argued that the commission failed to follow statutory mandates to ensure the sustainable growth of the solar market.
“We are extremely disappointed in the court of appeal’s decision on remand from the state Supreme Court,” said Bernadette del Chiaro, EWG senior vice president for California. “Instead of looking at this case with fresh eyes and doing the due diligence of reading and interpreting the statute, the court of appeal rushed to judgement, siding with the pro-utility CPUC and its utility allies.
The appellate court’s decision maintains the “Net Billing Tariff,” which transitioned the market away from NEM 2.0 and cut export credits by approximately 75% to 80%. In its ruling, the court deferred to the CPUC in its assessment of the costs and benefits of distributed generation.
The court found the CPUC met the requirements of Assembly Bill 327, concluding the commission adequately addressed the “cost shift” between solar and non-solar customers.
Despite instructions from the high court to review the case with “fresh eyes,” the appellate court ultimately backed the commission’s methodology for calculating the value of rooftop solar.
 The ruling suggests that “sustainable growth” does not require the commission to protect the specific profit margins or historical growth rates of the solar installation industry.
The decision was met with sharp criticism from the petitioners, who pointed to the significant contraction in the California residential solar market since NEM 3.0 took effect in April 2023. Industry data indicates a 60% to 80% drop in sales and the loss of over 17,000 jobs.
“This decision favors the corporate utilities’ profit model to build the most expensive and brittle version of the grid and making ratepayers foot the bill which only worsens the affordability crisis,” said Roger Lin, senior attorney, Center for Biological Diversity. “At a time when California needs to accelerate local renewables to combat a federal obsession with fossil fuels, this is a huge step in the wrong direction.”
The value proposition for homeowners continues to shift toward solar-plus-storage configurations and away from standalone, solar-only projects. Under NEM 3.0, battery energy storage is required to capture the value of generated electricity on-site, as the “avoided cost” rates for exporting to the grid remain at record lows.
The ruling solidifies the position of the state’s three investor-owned utilities, Pacific Gas and Electric (PG&E), Southern California Edison (SCE), and San Diego Gas & Electric (SDG&E), which have consistently argued that higher solar incentives increased the burden on lower-income ratepayers.
(Read: “Rooftop solar saved California ratepayers $1.5 billion last year, finds report”)
For installers, the solar-only business model in California is effectively over, and the market must now lean on storage integration to provide a viable return on investment.
This content is protected by copyright and may not be reused. If you want to cooperate with us and would like to reuse some of our content, please contact: editors@pv-magazine.com.
More articles from Ryan Kennedy
I was fortunate enough to get in and activated mere weeks before the end of 2.0. California deserves better. The state should supplement utility payments for those who can’t afford them and incentivize affordable, solar equipped housing. Just because our freaking country is going backwards doesn’t mean we should follow suit. Our world is on fire! Help!
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J.P. Morgan: The anti-internal competition in China’s photovoltaic industry has seen a negative turning point as expected, with regulatory authorities playing a role in stabilizing medium-term prices.  富途牛牛
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Construction has officially started on Octopus Australia’s Blind Creek Solar Farm and battery project in southern New South Wales, one of the biggest DC-coupled hybrid projects being developed in the country.
Image: Octopus Australia
The Australian arm of British renewables developer Octopus Investments announced it has broken ground on the $900 million (USD 639 million) Blind Creek solar farm and battery energy storage project being built near Bungendore in southern New South Wales (NSW).
Blind Creek will deliver 300 MW of solar generation, with a 243 MW / 486 MWh battery energy storage system, making it one of the biggest DC-coupled hybrid projects in Australia.
Octopus said the innovative design allows the battery to charge directly from the solar farm, enabling energy to be dispatched when both demand and value are at their peak.
“This is a bankable energy product designed to strengthen grid reliability and provide clean, dispatchable supply as ageing coal stations retire,” the developer said. “By pairing solar generation with storage, it produces firmed renewable electricity that gives customers price certainty and confidence in delivery.”
Being built near the town of Bungendore, the Blind Creek facility will connect to the grid via a new substation into the transmission backbone between the major load centres of Sydney and Canberra. Once operational, the facility will have the capacity to produce 735 GWh of renewable energy annually, enough to power up to 120,000 homes and businesses.
NSW Premier Chris Minns said the project will strengthen the electricity grid, accelerate renewable penetration and contribute to economic development in surrounding communities.
“This is the kind of project NSW needs as we replace ageing energy infrastructure,” he said. “The Blind Creek project is creating local jobs, and it will help deliver the replacement energy that households and businesses rely on.”
It is expected the project will support up to 300 full-time equivalent jobs at peak construction, with approximately half expected to be sourced from the local Bungendore and Monaro regions.
Initiated in partnership with local sheep graziers seeking to integrate agriculture with energy production as a means to future-proof their property, the solar farm will also support ongoing agricultural activities.
Octopus said the project has been specifically designed to enable sheep grazing to continue across the site, with a boost in grazing capability also expected as a result of protection from winds, partial shading, condensation and organic soil improvements coming from the project.
“This project shows what happens when global capital, Australian super and regional farming families align under stable government policy. You get real infrastructure, real clean electricity and real jobs,” Octopus Australia Chief Executive Officer Sam Reynolds said.
“Octopus Australia’s strategy is designed precisely for this, to align long-term capital with regional communities and deliver bankable projects.”
Construction of the Blind Creek project is being led by GRS, the engineering, procurement and construction (EPC) contractor of Spanish group Gransolar, with Finland’s Wärtsilä Energy Storage supplying the battery energy storage system. The project is due to be fully operational in 2028.
The Blind Creek project follows on from Octopus’ first DC-coupled project, the Fulham solar farm and battery energy storage system being built in Victoria. That project includes am 80 MW PV plant and a 64 MW / 128 MWh DC-coupled battery.
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GREW Solar has secured a repeat order worth approximately INR 500 crore from a domestic independent power producer (IPP) for the supply of its high-efficiency M10R TOPCon PV modules. The modules will be deployed at the developer’s upcoming utility-scale solar projects across multiple locations in India.
Grew Solar module production line
Grew Solar
GREW Solar has secured a repeat order worth approximately INR 500 crore from a domestic independent power producer (IPP) for the supply of its high-efficiency M10R TOPCon PV modules. The modules will be deployed at the developer’s upcoming utility-scale solar projects across multiple locations in India. The repeat order follows the successful and timely completion of a previous module order supplied by GREW Solar for the same developer.
GREW Solar said its M10R TOPCon modules feature a 144 half-cut cell design, which helps reduce power loss and supports stable performance even in high-temperature conditions. These come with a 15-year product warranty and a 30-year linear performance warranty, ensuring long-term reliability and consistent energy output for developers.
“This repeat order for our M10R modules reflects the confidence developers place in the quality, reliability, and performance of GREW Solar’s products,” said Vinay Thadani, CEO and Director, GREW Solar. “As India continues to witness rising power demand evident from the record levels seen as early as February this year the need for dependable and efficient solar solutions is becoming even more critical. Through our high-efficiency modules, we aim to support developers in delivering projects faster while contributing to India’s efforts to expand clean energy capacity and reduce dependence on fossil fuels.”
GREW Solar, a venture of the Chiripal Group, operates a 6.5 GW solar PV module manufacturing plant in Dudu, Rajasthan, with plans to scale to 11 GW. It is also setting up an 8 GW solar PV cell facility in Narmadapuram, Madhya Pradesh. GREW manufactures high-efficiency n-type TOPCon solar PV modules in G12R and M10R configurations, designed for reliable performance across utility, commercial, industrial, and rooftop projects.
 
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According to the latest IndexBox report on the global Solar Windows market, the market enters 2026 with broader demand fundamentals, more disciplined procurement behavior, and a more regionally diversified supply architecture.
The global solar windows market, encompassing Building-Integrated Photovoltaic (BIPV) glazing, thin-film, crystalline silicon, and emerging perovskite-based units, is transitioning from pilot demonstrations to early commercial adoption. As of 2026, the market is defined by a critical trade-off between photovoltaic efficiency, visible light transparency, and unit cost. This analysis forecasts the market’s evolution through 2035, a period expected to witness a significant inflection point driven by the convergence of stringent global net-zero building regulations, corporate Environmental, Social, and Governance (ESG) mandates, and maturing manufacturing processes for transparent conductive oxides and active layers. Growth will be uneven, heavily concentrated in regions with robust subsidies and advanced building codes, while technological competition intensifies among glass giants, specialized tech firms, and energy conglomerates. The path to 2035 is not merely about efficiency gains but achieving holistic cost parity with conventional high-performance glazing plus separate rooftop PV, thereby transforming the building envelope into an active, grid-interactive energy asset.
The baseline scenario for the solar windows market from 2026 to 2035 projects a trajectory of accelerating growth following a period of technological consolidation and initial scale-up in manufacturing. The outlook assumes continued, though not radical, improvements in conversion efficiency for transparent cells, with perovskite-on-glass architectures achieving commercial stability and gradually capturing share from established thin-film solutions. Critically, the scenario anticipates a steady decline in levelized cost of energy (LCOE) for solar windows, driven by economies of scale in coating and assembly processes and competition among substrate suppliers. Demand is forecast to be led by the commercial construction sector, where the value proposition of reduced operational energy costs and sustainability branding aligns with long-term asset ownership. The retrofit market for existing building facades will emerge as a significant secondary stream post-2030, as integration protocols standardize. Supply chain resilience for key materials like indium tin oxide (ITO) alternatives and high-performance encapsulants will be a persistent focus. The market will remain premium-priced compared to conventional glazing, but the gap is expected to narrow sufficiently to unlock demand in high-value residential and public infrastructure projects by the latter half of the forecast period.
Commercial office buildings represent the primary early-adoption segment, driven by asset owners’ focus on operational cost reduction and sustainability branding. Current demand centers on new flagship corporate headquarters and high-spec commercial developments seeking top-tier green certifications (LEED, BREEAM). Through 2035, demand will broaden from prestige projects to standard Grade-A office constructions, supported by stricter building energy performance regulations. Key demand-side indicators include corporate Power Purchase Agreement (PPA) structures that incorporate facade generation, the premium achievable for ‘net-zero ready’ rental space, and total cost of ownership models that factor in long-term energy savings. The mechanism involves developers and funds evaluating solar windows as a capital expenditure that reduces future operating expenses (OpEx) and enhances asset valuation, with demand accelerating as payback periods fall below 10-12 years. Current trend: Strong Growth.
Major trends: Integration with whole-building digital twins and energy management software, Design focus on curtain-wall and spandrel panel applications alongside vision glass, Rise of developer-led procurement for entire building facades as integrated systems, and Growing requirement for colored and customizable aesthetic options beyond neutral tints.
Representative participants: Onyx Solar Group LLC, AGC Inc, Saint-Gobain, NSG Group, and Polysolar Ltd.
The residential high-rise segment is currently in a nascent stage, limited to pilot projects in luxury developments. Demand is constrained by high costs, split incentives between developers and future occupants, and technical challenges in multi-unit electrical metering. The shift through 2035 will be driven by regulatory mandates for ‘Nearly Zero-Energy Buildings’ (NZEB) in key markets like the EU, making solar windows a viable solution for meeting on-site renewable generation requirements where rooftop space is insufficient. Demand indicators include changes in national building codes, the availability of green mortgages or financing, and the adoption by large-scale build-to-rent (BTR) operators who retain the asset and benefit from lower operating costs. The mechanism hinges on developers viewing the technology as a compliance tool and a market differentiator that commands a sales or rental premium, with growth accelerating as standardized balcony and window-unit retrofit kits become available. Current trend: Emerging Growth.
Major trends: Development of pre-glazed balcony and loggia units for easier retrofit, Focus on solutions for the booming build-to-rent (BTR) and multifamily sectors, Integration with residential energy storage systems for self-consumption optimization, and Growing interest from housing associations and public housing authorities for retrofit.
Representative participants: SolarWindow Technologies, Inc, Sunovation Production GmbH, Brite Solar, and Ubiquitous Energy, Inc.
Industrial applications, particularly in warehouses, logistics centers, and manufacturing facilities with large skylight or atrium areas, present a compelling use case. Current installations are often part of holistic sustainable design for new industrial parks, where the vast roof and vertical space offers significant generation potential. Through 2035, demand will be driven by the sector’s intense focus on reducing energy-intensive lighting and HVAC costs. The key mechanism is the dual function of providing daylighting while generating power, directly offsetting daytime electricity loads. Demand-side indicators include the levelized cost of electricity (LCOE) for the facility, the availability of capital allowances for green industrial equipment, and the strategic need for energy resilience. This segment benefits from less stringent transparency requirements compared to vision glass, allowing for slightly higher efficiency cells to be integrated into overhead glazing. Current trend: Steady Adoption.
Major trends: Combination with LED lighting control systems for optimized daylight harvesting, Use in temperature-controlled logistics facilities to offset high cooling loads, Design for new automated fulfillment centers with high energy demands, and Standardization of large-format, structurally robust skylight panel units.
Representative participants: Onyx Solar Group LLC, AGC Inc, NSG Group, and Polysolar Ltd.
Automotive glazing is a high-potential but technically challenging segment, currently limited to concept cars and limited-run solar roofs on premium electric vehicles (EVs). The primary demand driver is the need to extend the range of EVs by powering ancillary systems or providing trickle charging. Through 2035, adoption will progress from sunroofs to side and rear windows, particularly in commercial vehicles like buses and trucks where surface area is significant. The mechanism involves automakers integrating solar generation into the vehicle’s energy management system to reduce drain on the main battery for climate control and infotainment. Key indicators are improvements in flexible, curved solar cell technology that can be laminated into automotive safety glass, weight constraints, and the cost per watt added versus the value of extended range. Regulatory pressure to reduce vehicle auxiliary emissions will also be a factor. Current trend: Niche Innovation.
Major trends: Development of flexible perovskite films for curved glass applications, Integration with smart glass technology for dynamic tinting and power generation, Focus on last-mile delivery vans and electric buses for urban operations, and Partnerships between automotive glass suppliers (e.g., AGC, Saint-Gobain) and EV manufacturers.
Representative participants: AGC Inc, Saint-Gobain, Heliatek GmbH, Hanergy Holding Group, and Sharp Corporation.
Public infrastructure encompasses government buildings, universities, hospitals, transportation hubs, and public amenities. Demand is currently project-based, often funded by sustainability grants or as part of municipal climate action plans. The segment is characterized by a longer decision-making cycle but a higher willingness to adopt innovative technologies for demonstrative value. Through 2035, growth will be strongly tied to public procurement policies mandating renewable energy integration in new public works. The mechanism is driven by public entities aiming to reduce taxpayer-funded energy bills, achieve civic leadership in sustainability, and educate the public. Demand indicators include the volume of green public procurement (GPP) tenders, municipal bond issues earmarked for green infrastructure, and the inclusion of BIPV in national renovation wave strategies for public buildings. Current trend: Policy-Driven Growth.
Major trends: Use in noise barrier walls along highways and railways for dual-purpose infrastructure, Integration into bus shelters, canopy structures, and public pavilions, Focus on educational campuses as living laboratories for sustainable technology, and Projects funded through public-private partnerships (PPPs) and green bonds.
Representative participants: Onyx Solar Group LLC, Saint-Gobain, NSG Group, Brite Solar, and Polysolar Ltd.
Interactive table based on the Store Companies dataset for this report.
Asia-Pacific is poised to be the largest and most dynamic market, led by China’s ambitious dual carbon goals and massive urban construction pipeline. Japan and South Korea contribute with strong BIPV policies and advanced glass manufacturing bases. Australia’s commercial sector and high electricity prices drive early adoption. Growth is supported by regional dominance in PV supply chains and active government support for green buildings. Direction: Leading Growth.
North America, particularly the United States, will see robust growth driven by federal investment tax credits (ITC) for solar, which now explicitly include BIPV, and stringent state-level building codes (e.g., California’s Title 24). Demand is concentrated in commercial real estate and corporate campuses with strong ESG commitments. Canada’s green building initiatives and cold climate focus on energy efficiency provide additional momentum. Direction: Strong Growth.
Europe remains a critical innovation and regulatory leader, with demand heavily driven by the EU’s Energy Performance of Buildings Directive (EPBD) mandating NZEB standards and solar-ready buildings. Countries like Germany, France, and the Netherlands have established subsidy programs. The strong focus on building renovation waves under the European Green Deal presents a significant long-term opportunity for retrofit applications across the region. Direction: Policy-Led Growth.
Latin America represents an emerging market with potential driven by high solar irradiance and growing urban development. Adoption is currently sporadic, focused on pilot projects in commercial buildings in major cities like São Paulo and Mexico City. Growth hinges on the development of local financing mechanisms, increased awareness, and the gradual incorporation of energy efficiency standards into building codes. Chile and Brazil show early promise. Direction: Emerging Potential.
The MEA region is in a nascent stage but holds high long-term potential due to abundant sunshine and ambitious sustainable city projects (e.g., NEOM in Saudi Arabia, Masdar City in UAE). Initial demand is almost entirely project-based within these flagship developments. Widespread adoption faces challenges related to cost sensitivity and the prioritization of conventional low-cost energy generation. Growth will be highly concentrated in Gulf Cooperation Council (GCC) nations. Direction: Nascent with High Potential.
In the baseline scenario, IndexBox estimates a 12.0% compound annual growth rate for the global solar windows market over 2026-2035, bringing the market index to roughly 420 by 2035 (2025=100).
Note: indexed curves are used to compare medium-term scenario trajectories when full absolute volumes are not publicly disclosed.
For full methodological details and benchmark tables, see the latest IndexBox Solar Windows market report.
This report provides an in-depth analysis of the Solar Windows market in the World, including market size, structure, key trends, and forecast. The study highlights demand drivers, supply constraints, and competitive dynamics across the value chain.
The analysis is designed for manufacturers, distributors, investors, and advisors who require a consistent, data-driven view of market dynamics and a transparent analytical definition of the product scope.
This report covers solar windows, which are glazing units that integrate photovoltaic technology to generate electricity while maintaining transparency. The analysis encompasses products across key technological segments, including Building-Integrated Photovoltaics (BIPV), thin-film, crystalline silicon, and perovskite solar windows, as well as transparent solar concentrators and hybrid solar-thermal variants. The scope includes the full product lifecycle from manufacturing through integration into final structures.
The market is classified by product type (e.g., BIPV, thin-film, perovskite), application (commercial, residential, industrial, automotive, agricultural, public infrastructure), and value chain stage (from substrate manufacturing and PV cell production to assembly, integration, and power electronics). This segmentation provides a detailed view of supply dynamics, demand drivers, and technological adoption across different segments of the solar window ecosystem.
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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.
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Leader in transparent PV technology
Developing electricity-generating coatings
Wide range of BIPV glass products
Smart, energy-generating glass
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HeliaFilm for building integration
Manufacturer of transparent PV glass
Explores building-integrated solutions
Develops OPV for various surfaces
Explores solar glass technologies
Invests in solar glazing R&D
Active in BIPV glass development
Makes patterned solar glass
Blind-based solar for windows
Clear glass with edge PV generation
Custom colored solar glass
Specializes in integrated designs
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The NSW Independent Planning Commission has approved the Burroway Solar Project, a renewable energy development proposed approximately 18 kilometres north of Narromine within the Central-West Orana Renewable Energy Zone (REZ) in the Narromine Shire Council Local Government Area (LGA).
The project was proposed by Edify Energy Pty Ltd, which sought approval to construct a 100 MW solar farm along with a 100 MW / 400 MWh battery energy storage system (BESS).
In addition to the solar and battery facilities, the development will include temporary workers’ accommodation, a substation, and a connection to the existing 132 kV transmission line that runs through the project site.
A small subdivision is also proposed to accommodate the substation infrastructure.
The project was assessed as a State Significant Development (SSD) and was referred to the NSW Independent Planning Commission for determination after more than 50 public objections were submitted to the Department of Planning, Housing and Infrastructure during the assessment period.
A two member panel met with key stakeholders, conducted a site inspection and locality tour, and received 12 written submissions.
The Commission also scheduled local public consultation, but no community members registered to participate.
Solar projects paired with battery storage are increasingly being deployed across Australia.
Recently, Octopus Australia began construction of the Blind Creek Solar Farm and Battery project in New South Wales, which combines a 300 MW solar PV plant with a 243 MW / 486 MWh battery energy storage system.
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© 2025 THE COOL DOWN COMPANY. All Rights Reserved. Do not sell or share my personal information. Reach us at hello@thecooldown.com.
“This is great news for me!”
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A satisfied homeowner was pleased to share a breakdown of their electricity usage and energy savings after installing a heat pump water heater.
According to the OP, the heat pump water heater replaced a conventional 80-gallon electric tank that was about 18 years old. 
To highlight their savings, the OP posted images of their energy consumption charts before and after installing the heat pump water heater. 
“Had my 66gal AO Smith installed on the 11th and now have some data from my Emporia to compare the difference in electricity consumption,” the OP wrote. “Safe to say it’s using a little less than half the electricity with the same usage pattern, so I’m happy with that.”
Redditors appreciated the OP’s transparency and discussed the money-saving benefits of installing a heat pump water heater. 
“For people that have electric resistance water heaters, heat pumps should be a no-brainer in the majority of situations,” responded one user. “Thanks for sharing the data for all those folks!”
To put those savings in context, upgrading to a heat pump water heater can save you up to $550 each year. Heat pump water heaters are also two to three times more energy-efficient than traditional units, reducing your household’s energy consumption and pollution output.
For homeowners interested in upgrading their water heaters, Cala offers customizable smart heat pump water heaters. Thanks to its smart tech, which uses advanced hardware, sensors, and software, Cala heat pump water heaters heat water only when it’s needed, further reducing your energy bills. 
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To get started, just answer a few questions about your home — no phone number required. Within a day or two, EnergySage will email you the best options for your needs, and their expert advisers can help you compare quotes and pick a winner.
Solar panels can save you more than $50k over their 25-year lifespan, and EnergySage can help you save as much as $10k on installation. Which begs the question — isn’t that worth an email or two?
Cala’s smart heat pump water heaters are also environmentally conscious, taking additional factors into account, such as solar availability and grid emissions. As a result, Cala systems heat water in the least carbon-intensive way. 
Redditors continued to share their own experiences switching to a heat pump water heater. 
“As someone who’s about to be going from an oil fired water heater to a 50-gallon Bradford white heat pump water heater, this is great news for me!” commented one user. “Thank you for sharing.”
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Anand Rathi bullish on renewables; starts coverage on Emmvee, Vikram Solar  Business Standard
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Helleniq Energy Holdings on Monday announced the expansion of its global presence in the renewables market through the successful delivery and start of commercial operations of two photovoltaic parks in southern Romania, with a total capacity of 58 megawatts, in accordance with an agreement signed in 2023 with Metlen for the construction and acquisition of four photovoltaic parks with a total capacity of 211 MW.
This establishes its presence in five countries, with more than 0.56 GW RES capacity in operation, while the remaining two projects in Romania, with a total capacity of 153 MW, are expected to start operating within 2026.
The construction of a wind park with a total capacity of 96 MW in northeastern Romania is expected to be completed in the second quarter of 2027, increasing Helleniq’s total installed capacity in the country to over 300 MW.
With this development, Helleniq’s total RES portfolio capacity in Romania now exceeds 850 MW, strengthening its position in a growing market and accelerating the international diversification of its portfolio.
This includes a balanced mix of technologies (photovoltaic and wind projects, complemented by the addition of energy storage systems), which strengthens both the flexibility and resilience of the region’s grid. 
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Researchers have developed a PFAS-free dual-layer sol-gel and hydrophobic silica coating that repels water, dust, and dirt while maintaining high light transmission for solar panels. The transparent, self-cleaning coating improved photovoltaic efficiency from 13.90% to 14.56%, demonstrating strong durability and potential for future commercial applications.
Image: Henan University
An international research team has developed a dual-layer sol-gel and hydrophobic silica coating that can significantly improve solar cell performance by protecting the surface from dust accumulation, light reflection, bird droppings, and water films.
“The dual-layer coating repels water, dust and dirt without reducing the amount of light reaching the photovoltaic cells,” the research’s corresponding author, Shanhu Liu, told pv magazine. “Unlike many solutions on the market, it is made without forever chemicals, or per- and polyfluoroalkyl substances (PFAS).”
“Dust, dirt and bird droppings all affect solar panel performance. Maintenance risks damaging the panels, is costly and sometimes a logistical challenge,” said co-author, Sudhagar Pitchaimuthu. “Our clear, highly water-repellent coating works by combining a thin adhesive base layer with hydrophobic silica nanoparticles that lock into place as the material cures. The microscopic roughness created by these particles traps air at the surface, causing water to bead up and roll off, carrying dirt away with it. The result is a durable, transparent coating with strong self-cleaning performance.”
In the paper “Sol-gel preparation of transparent and superhydrophobic silica coatings for self-cleaning solar panels,” published in Colloids and Surfaces A: Physicochemical and Engineering Aspects, the scientists described the protective film as dual-layer transparent superhydrophobic coating combining sol-gel processed hydrophilic silica sol with hydrophobic silica nanoparticles.
The sol-gel process is a wet-chemical method used to produce thin films, coatings, or solid materials from a liquid precursor. In the process, liquid precursors react through hydrolysis and condensation to form a colloidal solution (sol). As the reactions progress, the particles link together to create a three-dimensional network, transforming the sol into a gel. The gel is then deposited on a surface and heat-treated to form a thin, solid coating such as an anti-reflective layer used in solar modules.
For the novel coating, the research group used glass slides as substrates and chemicals such as tetraethyl orthosilicate (TEOS), ethanol, ammonia solution, and hydrophobic silica nanoparticles. The glass substrates were first cleaned ultrasonically with detergent and ethanol, rinsed with deionized water, and dried to remove contaminants. A silica sol was then prepared using TEOS, ethanol, water, and ammonia as a catalyst to promote hydrolysis and condensation reactions.
After aging, the sol formed a transparent solution used to coat the glass through a dip-coating process, followed by drying to obtain a hydrophilic silica layer. To create a superhydrophobic surface, hydrophobic silica nanoparticles were dispersed in ethanol and deposited onto the coated glass by repeated dip-coating cycles. The number of coating cycles and nanoparticle concentrations were varied to optimize optical transmittance and surface wettability. The samples were then sintered at different temperatures to improve coating stability and performance.
The quality, composition and performance of the coating was analyzed through scanning electron microscopy (SEM) and atomic force microscopy (AFM), Fourier transform infrared (FTIR) spectroscopy, X-ray diffraction (XRD) analysis, X-ray photoelectron spectroscopy (XPS), and UV–Vis spectroscopy.
The analysis showed that coating exhibits excellent superhydrophobicity with a water contact angle of about 154° and a sliding angle of 1.5°. High optical transparency was also achieved, with transmittance reaching 96.2% due to the refractive-index gradient created by the silica layers. Mechanical tests also demonstrated strong durability against abrasion, sand impact, and water droplet impact, the scientists said, noting that the coating also showed good chemical stability in neutral and acidic environments and maintained performance during outdoor exposure.
Finally, when applied as cover glass for photovoltaic cells, the coating increased light transmission and improved solar cell efficiency from 13.90% to 14.56%.
“Improving the performance of solar cells and panels could have an incredible cumulative effect,” said co-author, Sanjay S. Latthe. 
“Over the past 20 years, a range of coatings have been brought to market, but they all have limitations. Our next focus is testing the coating in panels in extreme weather conditions, from Scottish winters with low temperatures and rainfall to desert conditions in Dubai. We should have our product to market within five years, if not sooner.”
The research team included scientists from China’s Research Institute of Petroleum Exploration and Development and Henan University, as well as India’s Vivekanand College and Heriot-Watt University in the United Kingdom.
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Amazon, Google, OpenAI and other tech firms have signed the ‘ratepayer protection pledge’ to build, bring or buy the energy required to build and operate data centres.
This follows last week’s visit to the White House by several tech companies, where US President Donald Trump introduced the requirements to hyperscalers and AI companies around data centres.
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Trump had previously mentioned the Bring Your Own Power (BYOP) requirement, more particularly during his State of the Union speech on 24 February 2026, which would require companies to pay for the energy needed for their own data centres and avoid an increase in electricity costs for consumers.
Seven tech companies have already signed the pledge, including Meta, Microsoft, Oracle, xAI, and the aforementioned Amazon, Google, and OpenAI.
Under the Ratepayer Protection Pledge, the seven companies will negotiate separate rate structures with utilities and State governments.
Furthermore, they will commit to paying the rates for the power and related infrastructure brought online to service their data centres, whether they use the electricity or not.
On top of that, the companies that have signed the pledge will also coordinate with grid operators to make backup generation resources available, allowing for a more resilient grid and preventing power shortages or blackouts in cases of emergency.
One of the companies that signed the pledge, Amazon, welcomed the administration’s ‘leadership’ on the issue and the pledge’s commitment to establish “an important baseline that will protect ratepayers and enable responsible, long-term energy partnerships that strengthen the grid and communities where data centres operate,” said Matt Garman, CEO of Amazon Web Services.
Solar PV is unlikely to benefit from this pledge, as shown by previous initiatives in the PJM market, explained Oliver Kerr, North America managing director at Aurora Energy Research.
“The biggest risk is that policy interventions distort prices and undermine competitive market dynamics – we’ve already seen how initiatives to fast-track new capacity in markets like in PJM can be unfavourable for solar and storage, for instance,” added Kerr.
The role of energy storage might, on the other hand, be more favourable than solar PV, given its applications.
“To the degree that data centres are willing and able to pay for a combination of ‘speed-to-power’ and 24/7 reliability, regulations that push for data centres to pay for their own energy infrastructure are especially bullish for storage, which provides both. The picture is more mixed for solar, which is faster to develop than large gas plants but not necessarily faster than on-site gas, and has more dispatchability challenges even with batteries than gas,” said Flakoll.
However, Garman added that more needs to be done to modernise the grid, highlighting “outdated permitting processes and bureaucratic delays” that are slowing critical energy and infrastructure progress, which, according to him, leads to “rising utility bills and placing growth and US competitiveness at risk.”
“Regulators at the state, regional, and increasingly federal levels are converging on making data centres pay their ‘fair share’ of power infrastructure costs with the aim of preventing cost shifts to ordinary consumers. Trump’s ratepayer protection pledge is non-binding and largely confirms a consensus that has emerged among policymakers independent of Trump, but the publicity may maintain pressure on hyperscalers to commit to paying,” said Derrick Flakoll, senior policy associate, BloombergNEF.
Flakoll added that most hyperscalers had already shown interest in paying the power plants required to operate their data centres in order to secure faster grid connections.
“The intention behind the pledge is a good one; how effective at protecting ratepayers from rising bills will depend on how it’s implemented,” Kerr said. “We see particular promise in new tariff structures for large loads.”
Kerr added that the new tariff structure is to ensure that cost-allocation better reflects cost-causation.
“This can include additional ‘margins’ for large load that can be used to cross-subsidise low income households (e.g. Georgia Power), ‘take-or-pay’ tariffs that require large load to cover the costs of requested capacity even if they don’t end up using it (e.g. in Ohio), or structures that pass on price spikes to large load to incentivise demand response.”
The effectiveness of the pledge to prevent customers from seeing their bills increase, as mentioned by Kerr, is something that is yet to be demonstrated.
Flakoll mentioned that cost shifts from industrial customers to residential consumers can be extremely subtle. “And some observers like former FERC Chair Mark Christie have criticised early policies by FERC and various PUCs as insufficient to prevent those cost shifts.”

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Fergal Ou0027Brien
Business Correspondent
Certa has agreed its first two deals under a €50 million plan to invest in solar energy projects over the next five years.
The fuel supplier company, which is part of the DCC group, said the initiative is aimed at delivering 50 megawatts (MW) of solar power to 100 large Irish businesses, which is enough to power 12,000 homes.
Certa’s new Solar as a Service (SaaS) offering is being provided through solar and renewable energy company Alternative Energy Ireland (AEI), which Certa acquired in 2023.
It said the service will enable large Irish businesses to harness the power of rooftop and ground mounted Solar Photovoltaic (PV) panels to “significantly reduce their energy costs and carbon emissions without any capital investment or maintenance costs”.
AEI will manage the installation and ongoing maintenance of each of the solar energy projects “to ensure they achieve 90% of their expected energy output annually”.
Wewise, a sister company within the DCC group, will provide tailored financing arrangements for the projects “without upfront costs”.
Jabil, which is in Bray in Co Wicklow, has become the first company to avail of the new service in a deal worth €1.2 million.
The company specialises in the design, development, and commercial scale up of complex and innovative healthcare products for pharmaceutical, medical device and diagnostic companies.
Jabil is installing 3,000 rooftop solar PV panels.
Certa said the 1.5 megawatt (MW) solar system will generate 1.3 million kilowatt (kWh) units of renewable solar power annually for the next 25 years and will reduce carbon emissions by 360 tonnes per year.
A deal has also been reached with Lindab, a supplier of energy-efficient ventilation systems, building solutions and accessories, valued at €200,000.
The company is installing 400 rooftop solar PV panels across its three sites in Dublin.
Certa said the 178kWh solar system will generate 165,000kWh units of solar power annually and will reduce carbon emissions by 44 tonnes each year.
Business Correspondent
© RTÉ 2026. RTÉ.ie is the website of Raidió Teilifís Éireann, Ireland’s National Public Service Media. RTÉ is not responsible for the content of external internet sites.
Images Courtesy of Getty Images.

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“It’s a long time [that] this has been happening.”
Photo Credit: iStock
Going solar has helped healthcare clinics in Puerto Rico keep their power on during outages, humanitarian aid organization Direct Relief said.
Since 2017, the group has funded 15 solar installations in community clinics and two fire stations, according to a press release. This has helped bolster access to treatment as the island continues to deal with ongoing power outages and grid unreliability.
For instance, the San Juan-based Profamilias clinic used to rely on generators to keep its pharmacy running and medications refrigerated during outages. Sometimes, staff would even have to take medications home to keep them refrigerated during hurricanes. 
But now that Profamilias is powered by solar, such outages no longer affect care.
Want to go solar but not sure who to trust? EnergySage has your back with free and transparent quotes from fully vetted providers in your area.
To get started, just answer a few questions about your home — no phone number required. Within a day or two, EnergySage will email you the best options for your needs, and their expert advisers can help you compare quotes and pick a winner.
“It’s a long time [that] this has been happening, and it has long-term consequences for the health of people,” Dr. Luis F. Gutiérrez Padin, a medical staff member at Corporación de Servicios de Salud Primaria y Desarrollo Socioeconómico El Otoao, said of Puerto Rico’s frequent power outages.
As people across the globe face an increasing risk of power outages due to hurricanes, winter storms, and other weather events, going solar is a great way to safeguard your home. 
If you’re interested in going solar, EnergySage can help you compare quotes from top-rated installers to make sure you get the best deal. They also offer the services of an unbiased energy adviser, who can help you choose the best installer for your needs. 
You can also take advantage of EnergySage’s free mapping tool that shows the average cost of a home solar panel system and solar panel incentives in each state. 
FROM OUR PARTNER
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To get started, just answer a few questions about your home — no phone number required. Within a day or two, EnergySage will email you the best local options for your needs, and their expert advisers can help you compare quotes and pick a winner.
On average, EnergySage can help the average person save up to $10,000 on their solar purchase and installation. 
Plus, if you want to have an even more robust system that will keep you online during power outages, battery storage is the way to go. EnergySage has free tools that will get you the information you need for home battery storage options, including competitive installation estimates.
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Seasonality in Perovskite Solar Cells: Insights from 4 Years of Outdoor Data  Wiley
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According to the latest IndexBox report on the global Sputtering Targets market, the market enters 2026 with broader demand fundamentals, more disciplined procurement behavior, and a more regionally diversified supply architecture.
The global sputtering targets market, a critical enabler for thin-film deposition across advanced electronics and precision coatings, is projected for significant expansion through the 2026-2035 forecast horizon. This growth is fundamentally anchored in the relentless innovation within the semiconductor industry, where successive node shrinks below 3nm demand ultra-high-purity metallic and compound targets with exacting specifications for interconnect and barrier layer applications. Concurrently, the proliferation of large-format, high-resolution displays for consumer electronics and automotive interfaces sustains robust consumption of transparent conductive oxide targets like ITO and its alternatives. Emerging demand from the solar photovoltaic sector, driven by global energy transition goals, and from advanced optical coatings for consumer devices and aerospace, provides additional growth vectors. However, the market faces headwinds from raw material price volatility, geopolitical tensions affecting supply security for critical metals like tantalum and cobalt, and the intense capital and R&D requirements for next-generation target fabrication. This analysis provides a comprehensive outlook on these dynamics, segmenting demand across key end-use sectors and geographies to chart the market’s trajectory toward 2035.
The baseline scenario for the sputtering targets market through 2035 is one of sustained, technology-driven growth, moderated by cyclical end-industry demand and supply-side constraints. The market’s fundamental driver remains the semiconductor industry’s roadmap, which continues to demand new target materials and higher purity grades for advanced logic and memory chips. This creates a consistent, high-value demand stream that underpins overall market expansion. Growth in flat panel displays, while maturing in certain segments like smartphones, is expected to be bolstered by larger screen sizes, the adoption of OLED and micro-LED technologies, and increasing penetration of touch-enabled displays in automotive and industrial applications. The solar PV and optical coatings sectors are forecast to exhibit above-average growth rates, supported by global decarbonization policies and the integration of advanced functionalities into consumer devices, respectively. Geographically, Asia-Pacific will consolidate its position as the dominant consumption and production hub, though strategic initiatives in North America and Europe aimed at bolstering regional semiconductor supply chains may gradually alter trade flows. The market will remain concentrated among a few global leaders with vertical integration capabilities, but competition is expected to intensify in specific material segments, particularly for alternative transparent conductors and novel compound targets.
Semiconductor fabrication is the primary demand driver, consuming high-purity metal (Al, Cu, Ti, Ta) and barrier layer targets (Co, Ru) for interconnect and transistor applications. The transition to sub-3nm nodes and 3D architectures like GAAFETs necessitates atomic-level precision in thin films, pushing target purity requirements to 99.9999% (6N+) and driving adoption of new materials such as cobalt alloys and ruthenium. Through 2035, demand will be tightly coupled to wafer start volumes, capital expenditure cycles of leading-edge fabs, and the complexity of chip designs, measured by the number of metal layers. The shift towards advanced packaging (e.g., chiplets, 3D ICs) also creates new demand for specialized targets used in through-silicon via (TSV) and redistribution layer (RDL) metallization. Current trend: Strong Growth.
Major trends: Transition to cobalt and ruthenium for sub-5nm interconnects and liners, Increasing purity requirements (6N+) to reduce thin-film defects, Growth of 3D NAND and DRAM scaling demanding conformal barrier layers, and Rise of advanced packaging requiring targets for TSV and microbump metallization.
Representative participants: Taiwan Semiconductor Manufacturing Company (TSMC), Samsung Electronics, Intel Corporation, SK Hynix, Micron Technology, and GlobalFoundries.
This sector utilizes large-area sputtering targets, primarily indium tin oxide (ITO) and alternatives like aluminum-doped zinc oxide (AZO), to deposit transparent conductive layers for LCD, OLED, and emerging micro-LED displays. Current demand is driven by screen size expansion in TVs and monitors, the proliferation of touch interfaces, and the automotive industry’s adoption of larger central displays. Through 2035, growth will be paced by the adoption of foldable OLEDs, which require flexible TCO layers, and the ramp-up of Gen 10.5+ fabs for ultra-large TVs. Key demand-side indicators include global panel area capacity expansion, the ITO/indium price ratio, and the commercialization rate of alternative TCO materials aimed at reducing indium dependency and cost. Current trend: Steady Growth.
Major trends: Shift towards larger Gen 10.5+ fabs for TV panels increasing target size requirements, Adoption of flexible OLEDs for smartphones and notebooks driving demand for flexible TCOs, Development of indium-free alternatives (AZO, IGZO) to mitigate supply risk, and Integration of touch sensors directly into display panels (on-cell, in-cell).
Representative participants: Samsung Display, LG Display, BOE Technology Group, AUO, Innolux Corporation, and Japan Display.
The PV sector employs sputtering targets for thin-film solar cells (CIGS, CdTe) and for depositing conductive and anti-reflective coatings on silicon heterojunction (HJT) and perovskite-silicon tandem cells. Current demand is fueled by global capacity additions and the push for higher cell efficiencies. Through 2035, the market will be propelled by the scaling of perovskite and tandem cell production, which require precise multi-layer stacks of metal oxides and transparent conductors. Demand is directly linked to annual PV installation forecasts, government renewable energy targets, and the efficiency gains offered by advanced thin-film layers. The sector’s growth is particularly sensitive to the levelized cost of electricity (LCOE) improvements achieved through these advanced coatings. Current trend: High Growth.
Major trends: Ramping production of silicon heterojunction (HJT) cells using TCO targets, Commercialization of perovskite-silicon tandem cells requiring complex multi-layer stacks, Growth of building-integrated photovoltaics (BIPV) using aesthetic, coated glass, and Focus on reducing silver consumption in contacts via advanced metallization layers.
Representative participants: First Solar, Hanwha Q CELLS, LONGi Green Energy Technology, JinkoSolar, Trina Solar, and Canadian Solar.
Optical coatings involve depositing thin films for anti-reflection, mirrors, filters, and decorative finishes on lenses, consumer device glass, automotive components, and aerospace windows. Current applications range from smartphone camera lenses and cover glass to advanced optics in lithography tools. Through 2035, demand will be supported by the increasing number of cameras per mobile device, the adoption of augmented reality (AR) glasses requiring complex multi-layer coatings, and stringent performance requirements for satellite and defense optics. Key indicators include smartphone shipment volumes, AR device adoption rates, and defense/aerospace procurement budgets. The trend towards multifunctional coatings (e.g., anti-reflective, oleophobic, anti-bacterial) on single substrates will also drive value. Current trend: Moderate Growth.
Major trends: Increasing number of lenses per smartphone and automotive LiDAR system, Emergence of consumer AR/VR devices requiring ultra-lightweight coated optics, Demand for durable, high-performance coatings in aerospace and defense, and Integration of decorative with functional coatings on consumer electronics.
Representative participants: Zeiss, Corning Incorporated, Hoya Corporation, II-VI Incorporated, Viavi Solutions, and Deposition Sciences.
This segment includes targets for magnetic data storage media (HDD platters), decorative and wear-resistant coatings on consumer goods, and biocompatible coatings for medical devices. The HDD segment, while facing competition from SSDs, persists in high-capacity cold storage applications, requiring cobalt-chromium-platinum alloy targets. Decorative coatings for watches, jewelry, and electronics use gold, chromium, and other metals. Medical device coatings employ titanium and hydroxyapatite targets for implants. Through 2035, demand will be sustained by the need for high-density archival storage, the premium aesthetics market, and an aging population requiring more medical implants. Growth is tied to enterprise storage demand, luxury goods consumption, and healthcare demographics. Current trend: Stable.
Major trends: Transition to higher areal density HDDs (e.g., HAMR, MAMR) requiring new magnetic alloys, Use of PVD coatings for scratch-resistant and colored finishes on consumer electronics, Growth of medical implants driving demand for biocompatible titanium and ceramic coatings, and Application of wear-resistant coatings on industrial tools and components.
Representative participants: Seagate Technology, Western Digital, Swatch Group, Medtronic, Stryker Corporation, and CemeCon.
Interactive table based on the Store Companies dataset for this report.
Asia-Pacific is the undisputed epicenter of both consumption and production, housing the world’s leading semiconductor fabs (Taiwan, South Korea, China), display panel manufacturers, and PV cell producers. This concentration drives over two-thirds of global demand. Japan and South Korea remain leaders in high-purity target fabrication, while China is rapidly expanding its domestic supply chain. Growth through 2035 will be fueled by continued capacity expansions in these key end-use industries, though geopolitical factors may influence supply chain configurations. Direction: Consolidating Dominance.
North America’s demand is primarily driven by advanced semiconductor logic and memory fabs in the U.S., alongside significant R&D and aerospace/defense applications. The CHIPS Act and similar policies are catalyzing major new fab investments, which will boost long-term regional demand for leading-edge targets. The region also hosts several major target manufacturers and material science innovators, positioning it for strategic growth in high-value segments. Direction: Strategic Re-investment.
Europe’s market is characterized by strong demand from the automotive industry (for coated glass and sensors), industrial tool coating, and specialized optics. The region is home to leading target manufacturers for niche, high-performance applications and is investing in semiconductor sovereignty via the European Chips Act. Growth will be steady, supported by the green transition (PV, energy-efficient glass) and automotive innovation. Direction: Focused Specialization.
The market in Latin America is small but developing, with demand primarily stemming from the growing PV installation sector, architectural glass, and some electronics assembly. Brazil and Mexico are the key markets. Growth potential is linked to regional economic development, renewable energy investments, and the expansion of local manufacturing for consumer goods requiring decorative coatings. Direction: Niche Growth.
This region represents a minor share of the global market. Demand is primarily for architectural glass coatings in construction projects and, increasingly, for targets used in local PV module assembly as part of renewable energy initiatives. The market is expected to grow slowly from a low base, driven by infrastructure development and economic diversification efforts away from hydrocarbons. Direction: Emerging Applications.
In the baseline scenario, IndexBox estimates a 6.2% compound annual growth rate for the global sputtering targets market over 2026-2035, bringing the market index to roughly 185 by 2035 (2025=100).
Note: indexed curves are used to compare medium-term scenario trajectories when full absolute volumes are not publicly disclosed.
For full methodological details and benchmark tables, see the latest IndexBox Sputtering Targets market report.
This report provides an in-depth analysis of the Sputtering Targets market in the World, including market size, structure, key trends, and forecast. The study highlights demand drivers, supply constraints, and competitive dynamics across the value chain.
The analysis is designed for manufacturers, distributors, investors, and advisors who require a consistent, data-driven view of market dynamics and a transparent analytical definition of the product scope.
This report covers sputtering targets, which are specialized materials used in physical vapor deposition (PVD) processes to create thin films on substrates. The coverage encompasses targets produced from various material bases, including metals, alloys, ceramics, and compounds, which are fabricated into specific shapes (such as planar or rotary) for integration into coating systems. The analysis focuses on the commercial market for these fabricated targets, from production through to end-use application.
Sputtering targets are classified under multiple Harmonized System (HS) codes due to their diverse material composition and form. They are primarily categorized based on their constituent metals, alloys, or chemical compounds. The classification reflects the stage of fabrication, from unwrought metals and powders to more worked forms, and includes specific codes for precious metal-based and other manufactured chemical products used in the industry.
World
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.
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Key supplier for semiconductor and display
Major supplier to semiconductor industry
Part of Linde, broad portfolio
Strong in electronics and semiconductor
High-performance target materials
Leading in transparent conductive oxides
Strong in recycling and advanced materials
Subsidiary of Tosoh Corporation, Japan
Broad materials portfolio
Supplier of advanced metal targets
Leading Chinese supplier
Key player in China's supply chain
Focus on large-area and display coatings
Growing Chinese manufacturer
Expert in high-melting-point metals
Chinese supplier for electronics
Focus on R&D and specialty orders
Supplier of targets and coating systems
Manufacturer of custom targets
Specializes in niche materials
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Limiting phosphonic acid interlayer–perovskite reactivity to stabilize perovskite solar modules  Science | AAAS
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Rain ending early. Remaining cloudy. High around 50F. Winds NNW at 15 to 25 mph. Chance of rain 90%. Rainfall near a quarter of an inch. Higher wind gusts possible..
A mostly clear sky. Low around 30F. Winds WNW at 10 to 20 mph.
Updated: March 11, 2026 @ 1:00 am
Two new solar farm proposals were discussed in Adams County Tuesday night.
The Adams County Board discussed the proposal for two new solar farms in the county at a board meeting Tuesday night.
Pivot Energy LLC submitted special use permit applications for two new commercial solar energy facilities.
One would be 1.6 megawatts. The other would be one megawatt.
But the company isn’t yet saying where they would be located.
Pivot already has a 3.4-megawatt, 34-acre solar farm on the way to Ghost Hollow Road. The plan drew a lot of controversy when the board approved it in August.
“We will go through the procedure as we have before. We’ve dealt with Pivot before. All things being equal, at least they are a responsible company to deal with, so more fun with that.”
Back in August, members of the board said the State of Illinois limits county authority when it comes to approving of solar projects across the state, so as long as the proposals meet certain requirements, they ultimately have to approve these kinds of projects.
The board will hold a public hearing on both proposals April 22 starting at 6 p.m.
Currently in Quincy
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A massive $750 million solar push is quietly unfolding across Nigeria, drawing attention from global investors and energy companies.
In several rural communities across Nigeria, workers have recently begun installing rows of solar panels beside clusters of homes and small businesses. The installations are not connected to the national transmission network. Instead, they form localized electricity systems designed to power nearby villages directly. These installations are part of a rapidly expanding network of solar mini-grids appearing across rural parts of the country.
Each installation includes photovoltaic panels, battery storage units, and short distribution lines linking homes and shops. Electricity is generated locally and delivered to customers without relying on distant power plants or long transmission lines. For many communities, the systems provide the first stable electricity supply in years. The installations are being accelerated by a $750 million energy program backed by the World Bank.
For decades, unreliable electricity has remained one of the largest infrastructure challenges in Africa’s most populous country. Power outages frequently force households and businesses to operate petrol or diesel generators to maintain daily activities. These machines supply electricity during grid failures but require constant fuel purchases. A new financing program now aims to expand clean power systems much closer to the communities that need them.
In December 2023, the World Bank approved a $750 million credit for renewable electricity expansion in Nigeria. The initiative is officially called the Distributed Access through Renewable Energy Scale-Up project, commonly known as DARES. Financing comes through the International Development Association, the concessional lending arm of the World Bank Group. The program focuses on decentralized renewable infrastructure rather than expanding large centralized power stations.
Implementation is being coordinated by Nigeria’s Rural Electrification Agency, which is responsible for improving electricity access in underserved regions. The agency works with private energy developers that build and operate solar installations. These developers receive targeted grants and technical support while installing systems in communities beyond the reach of the national grid. Project documents show the initiative aims to provide new or improved electricity access to 17.5 million people.
The funding model encourages private investment in distributed energy infrastructure. Developers receive performance-based grants after connecting homes or businesses to operational systems. This approach reduces the financial risk associated with rural electricity projects. It also encourages companies to deploy renewable installations more quickly.
Despite its large economy, Nigeria continues to face a major electricity access gap. Estimates suggest around 86 million Nigerians still lack reliable electricity supply. Even households connected to the grid often experience frequent outages that can last several hours. As a result, petrol and diesel generators remain widespread across cities and rural towns.
These generators allow businesses to continue operating during blackouts. However, they require daily fuel purchases and frequent maintenance. The engines also produce significant noise and local air pollution. For small enterprises, generator fuel often represents one of the highest operating expenses.
A solar mini-grid provides a different approach to supplying electricity. Solar panels generate power during daylight hours while batteries store energy for evening use. The electricity then flows through short cables connecting nearby homes, shops, and workshops. Because the system operates locally, communities can receive power without waiting for long-distance grid expansion.
The DARES program supports two main types of renewable energy systems. The first includes community-scale solar mini-grids capable of powering entire villages. The second involves solar home systems, which provide smaller household installations. Both technologies focus on communities located far from existing electricity infrastructure.
According to Business Insider Africa, developers must complete installations before receiving program incentives. Funding is released only after systems are operational and customers are connected. This performance-based financing model encourages developers to maintain working electricity networks. It also helps ensure projects deliver functioning infrastructure rather than incomplete installations.
The program also aims to support economic activity in rural areas. According to World Bank estimates, up to 237,000 micro, small, and medium-sized enterprises could gain improved electricity access through the initiative. These businesses include welding shops, grain mills, restaurants, and small retailers. Stable electricity supply allows them to operate equipment without relying on fuel-powered generators.
The DARES initiative builds on an earlier program called the Nigeria Electrification Project. That initiative tested decentralized renewable energy systems in communities with limited grid access. Developers installed solar infrastructure in several states where transmission expansion was unlikely in the short term. The results provided technical and financial lessons for future electrification efforts.
Under the Nigeria Electrification Project, companies installed 125 solar mini-grids across multiple regions. Developers also deployed more than one million solar home systems to households located beyond the national grid. According to World Bank data, the installations provided electricity access to more than 5.5 million people. The experience helped shape the structure of the larger DARES program.
Mini-grid projects can be deployed faster than conventional power infrastructure. Once permits and financing are secured, installation can often be completed within a few months. Developers do not need to construct long transmission corridors or large substations. This makes decentralized solar systems particularly effective for remote settlements.
One of the most immediate impacts of the DARES program could be a reduction in generator use across Nigeria. Petrol and diesel generators remain the most common backup electricity source for households and businesses. During outages, these machines often operate for several hours each day. Fuel costs can accumulate quickly.
According to World Bank estimates, renewable installations under the program could replace more than 280,000 petrol and diesel generators. Solar mini-grids paired with battery storage can deliver consistent electricity without burning fuel. Businesses can operate tools, refrigeration systems, and lighting equipment throughout the day. This shift reduces both fuel costs and local emissions.
Reliable electricity can also influence local commerce. Shops can remain open later while refrigeration systems help preserve food products. Workshops that rely on electric machinery can operate without interruption. These changes often appear soon after mini-grid systems begin operating.

Arezki is an Editor-in-Chief and Project Manager based in Japan, specializing in science and technological innovation. Originally from Algeria, he holds a Foreign Languages Diploma from Lycée Zamoum Mohamed, a BA in English from Université Mouloud Mammeri de Tizi Ouzou, and a Nursing Diploma from the Bel Air Institute in Boghni. Bridging science, communication, and humanity, he explores how space research and emerging technologies shape the future of health and society, leading global editorial projects at The Daily Galaxy that translate complex ideas into engaging, cross-cultural stories.
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YOU ARE AT: Home » OQAE’s Three Major Solar Projects to be Operational by this Year’s End
OQ Alternative Energy (OQAE) has reached major milestones across its Riyah 1, Riyah 2, and North Oman Solar projects, which are expected to be operational by the end of this year and will collectively deliver 330 MW of renewable power. Together, the projects have set several national records, including the development of Oman’s largest wind farm and the transportation of the country’s longest inland convoy. They have also exceeded their in-country value (ICV) commitments, achieving approximately 30% local content. This strong performance positions these projects as one of Oman’s strongest-performing renewable energy developments, delivering substantial economic impact and setting a new benchmark for national industrial participation.
These projects are a partnership between OQAE and TotalEnergies and represent a combined investment of more than USD 230 million. Comprising the Riyah 1 and Riyah 2 wind projects located at Petroleum Development Oman’s (PDO) Amin and West Nimr fields in southern Oman, as well as the North Oman Solar plant at Saih Nahaydah in northern Oman, the projects and will add more than 330 MW of renewable wind and solar capacity to power PDO’s grid upon commissioning by the end of this year. Beyond clean power generation, the projects have been deliberately structured to serve as platforms for local capability building, industrial participation and workforce development, in line with Oman Vision 2040 and Net Zero 2050 ambitions.
North Oman Solar (NOS) is progressing steadily toward the final stages of mechanical completion, marking an important milestone in delivering utility-scale renewable power to Oman’s grid. The project has reached 95% completion of tracker and photovoltaic (PV) module installation, with full PV module installation targeted by mid-March 2026.
For the Riyah 1 and Riyah 2 wind projects, major construction milestones have also been achieved. Seven wind turbines with a 200 m tip height have been fully erected, with installation activities continuing to complete the remaining turbines. Importantly, all 36 wind turbine generators have successfully arrived in Oman, with 19 already transported from the port to project sites, and 100% of the wind turbine foundations have been completed, enabling the project teams to accelerate turbine erection and advance toward commissioning in the coming months.
From early-stage procurement through construction, the projects have embedded an ICV-first approach. To date, approximately 30% of total project expenditure has been retained within the national economy, engaging local Omani companies across engineering, electrical systems, logistics, roads, civil works and specialist services. 
Key local manufacturers including Voltamp, Oman Cables, Al Kiyumi Switchgear and Al Hassan Switchgear supplied critical infrastructure components, covering power transformation systems, medium- and low-voltage equipment, electrical cabling and distribution boards. Substation engineering design was executed locally by Worley Oman, strengthening domestic capabilities and ensuring technical knowledge remains embedded in Oman’s energy ecosystem. Complex logistics and customs management for turbine components were managed by Khimji Ramdas, expanding national expertise in specialised renewable supply chains.
Omanisation performance has also surpassed baseline expectations. The projects have achieved a 40% Omani workforce participation rate, creating approximately 150 direct and indirect jobs across development and construction phases. In coordination with authorities in Wilayat Adam, Shaleem and Al Jazir, a structured community hiring programme was implemented to ensure host communities directly benefit from employment opportunities associated with renewable infrastructure.
Crucially, OQAE has embedded an on-the-job local capability development program within these projects’ structure. Under this program, 15 Omani professionals have been placed shadowing construction management, engineering, HSE and operational functions alongside international specialists. This structured capability-building approach is designed to accelerate the development of national renewable expertise and create a sustainable pipeline of wind and solar energy professionals.
“One of our strategic goals is to promote a local ecosystem for renewable energy. Exceeding our in-country value target by three times reflects this commitment and was deliberately planned. These projects were designed from the outset to ensure that every megawatt delivered simultaneously strengthens Oman’s industrial base, workforce capability and technical expertise”, said Kumail Said, Acting CEO of OQ Alternative Energy. He added, “Renewable energy can do more than decarbonize. By working with local businesses, we help advance the local renewable energy ecosystem, creating lasting benefits for Oman for decades to come”.
As Oman’s designated National Champion for Renewable Energy, OQAE’s mandate extends beyond project delivery to steward the development of a clean energy sector that drives economic diversification, industrial growth and energy security. These projects sit within OQAE’s broader pipeline of renewable opportunities and align with its objectives to displace natural gas, reduce greenhouse gas emissions and catalyse private sector investment. With commissioning targeted for the end of the year, North Oman Solar, Riyah 1 and Riyah 2 are positioned not only to expand Oman’s renewable capacity by 330 MW but also to reinforce the foundations of a domestically anchored, globally competitive clean energy sector.
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A new renewable energy developer founded by Frank Phuan has raised S$50 million (US$39 million) to build solar and green hydrogen infrastructure in Indonesia as regional efforts to export clean power to Singapore face regulatory barriers.
Equator Renewables Asia (ERA), established last year by the former co-founder of Sunseap Group, secured the funding from strategic investors including Indonesian agribusiness firm KPN Corporation and Singapore-based shipping company Tsao Pao Chee (TPC).
KPN and TPC contributed S$30 million (US$24 million) as key investors, with the remaining S$20 million (US$16 million) to come from Phuan and ERA’s management team.
Phuan said the fundraise is part of ERA’s mission to help Singapore and Indonesia decarbonise while supporting the development of sustainable industrial zones (SIZ) in the archipelago. 
ERA’s announcement comes as several cross-border solar projects between Indonesia and Singapore face delays, raising concerns about the pace of clean power trading between the two countries.
According to reporting by The Straits Times, multiple Indonesian and multinational developers tasked with exporting solar power from Batam to Singapore have struggled to secure financing, despite a bilateral agreement signed in 2023.
The projects – which involve building large solar farms, battery storage facilities and subsea transmission cables – were initially targeted to begin delivering electricity by 2028.
However, industry executives told the ST that a regulatory requirement in Indonesia – permit renewal every five years – has made the projects difficult to finance, jeapardising project tlmelines.
Phuan told Eco-Business that ERA’s projects are “progressing in parallel” with policy discussions between the Singapore and Indonesian governments to finalise the regulatory framework for cross-border renewables trade, including the tenure of export licences.
ERA has secured licence approval to reserve the Indonesian subsea space needed for cabling, and is working with government agencies to clarify detailed requirements under the SIZ framework, he said.
ERA’s Indonesian pipeline includes multiple solar projects with a combined capacity of 2.2 gigawatt-peak (GWp), along with 3.2 gigawatt-hours (GWh) of battery energy storage and green hydrogen initiatives.
Phuan said that the new funding injection would be split between site development and early-stage project preparation for utility-scale solar development, and early-stage feasibility studies, pilot development, and storage and transport for green hydrogen.
ERA’s development portfolio is focused on Indonesia’s Riau archipelago, including a new SIZ across the Batam, Bintan and Karimun regions that was established by Singapore and Indonesia in a Memorandum of Understanding (MOU) last year.
That region has seen resistance to development in recent months, with the Rempang Eco-City project, a glass and solar initiative covering 7,000 hectares of Rempang Island near Batam, sparking community protests amid reports of forced evictions.
Phuan said ERA’s projects are expected to be located across several sites within the Riau Islands, with land controlled by KPN another site location option.
He said ERA is in early-stage discussions with KPN regarding site selection, and all projects would be subject to environmental and social impact assessments and take into account land suitability and regulatory requirements.
Phuan cited regulatory hurdles, electricity price volatility and land access rights among the key challenges facing cross-border energy trading in Southeast Asia on a podcast with Eco-Business last month.
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