Delhi hikes solar panel subsidy, free panels for homes using up to 400 units: CM | India News – Hindustan Times

The Delhi government announced an ambitious plan on Tuesday to raise the state subsidy for residential rooftop solar installations in the national capital to 78,000, a move that would slash the upfront cost of setting up the clean energy system.
Chief minister Rekha Gupta said households with a monthly consumption of 400 units of electricity or less would effectively be eligible for a fully funded 3-kilowatt rooftop solar system under the revised Delhi Solar Policy.

Under the changes made to the 2023 policy, the Delhi government will offer subsidies of up to 78,000 for a 3-kw solar panel system. Paired with equal funding from the central government’s PM Surya Ghar initiative, the total incentives will effectively cover the setup cost for standard 2- and 3-kw units.
Gupta said the government has targeted installing rooftop solar systems in 230,000 households across Delhi by March 2027.
Also Read: The supply chain behind solar panels
Also Read: The supply chain behind solar panels
“The government not only wants to reduce people’s electricity bills but also to support the installation cost of solar panels. The government will provide free rooftop solar panels to all households with monthly electricity consumption of 400 units,” Gupta said at a press conference.
Apart from the state subsidy of 78,000 for a 3-kW system, the policy also proposes an additional state top-up of 19,000 for consumers using up to 400 units of electricity a month. This would cover the installation cost of 1.75 lakh for a 3-kw system.
Also read | ₹35/kg: Rekha Gupta”>Delhi receives 1,000 tonnes of onions from Centre for sale at 35/kg: Rekha Gupta
Households that consume more than 400 units would not receive the additional top-up of 19,000.

For households consuming 0-200 units a month, the proposed support will vary according to the size of the solar system. A 2-kW system, estimated to cost around 1.30 lakh, will receive 60,000 as central subsidy, 52,000 as Delhi government subsidy and an additional 18,000 top-up. The total support of 1.30 lakh would effectively cover the listed cost of the system.
The policy also takes into account the savings and income generated from rooftop solar systems.
For consumers in the 0-200 unit category installing a 2-kW system, the government estimates electricity savings of around 200 units a month, translating into a benefit of about 300 per month at 3 per unit.
For a 3-kW system, consumers are expected to save around 200 units a month and export another 100 units to the grid. Payment for the exported electricity is estimated at 650 a month, taking the average additional monthly benefit to around 950.
For households consuming 201-400 units a month, the upfront subsidy structure will remain the same — 60,000 central subsidy, 52,000 Delhi subsidy and 18,000 top-up for a 2-kW system, and 78,000 each from the Centre and Delhi, along with a 19,000 top-up for a 3-kW system. The estimated average additional monthly benefit for this category is 1,659.
For households consuming more than 400 units a month, a 3-kW system costing 1.75 lakh will receive 78,000 each from the Centre and Delhi, while there will be no additional top-up. The proposed consumer contribution will be 19,000. The average additional monthly benefit is estimated at 2,143, with surplus electricity eligible for payment at 6.50 per unit.
Group housing societies
The revised framework provides for support to group housing societies for installing solar systems in common areas. A proposed 100-kW system, estimated to cost 45 lakh, will receive 18 lakh as central subsidy and 11 lakh as Delhi government subsidy, leaving a consumer contribution of 16 lakh. The estimated average additional benefit is 81,247 per month.
Gupta said the rooftop solar programme is part of the government’s “Green Delhi” initiative. At present, around 10,000 buildings in Delhi have rooftop solar panels installed and most of them government buildings, she said.
Saloni Bhatia is a journalist with over 15 years of experience in reporting and storytelling, with a strong focus on the Delhi government and political developments in the Capital. Over the years, she has closely tracked policy decisions, governance issues, and political shifts. She started off as an entertainment journalist but then moved to covering beats like crime and education. Her experience on the crime beat helped her develop an eye for detail and accuracy, while education reporting allowed her to explore policy impact on students, teachers and institutions. Outside the newsroom, she enjoys reading both fiction and non-fiction. She also has a keen interest in watching Bollywood films.

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New Jersey legalizes plug-in solar up to 1,200 W – pv magazine USA

New Jersey Governor Mikie Sherrill has signed the the Garden State Balcony Solar Act (S2368/A4836) into law, enabling New Jerseyites to install and use portable solar generation devices of up to 1,200 watts without the need to apply for an installation permit or obtain their utility’s approval.
The law, which was passed by the state’s two legislative bodies on unanimous votes in late June, would require the portable solar devices to comply with provisions of the most recent versions of the National Electrical Code (NEC) and the State Uniform Construction Code, in addition to becoming listed or certified under the UL 3700 Outline of Investigation for Interactive Plug-In PV (PIPV) Equipment and Systems.
The bill creates an exemption for devices with power output of 400 watts from the need to obtain the UL listing or comply with the NEC and state code.
“From day one, I’ve been laser-focused on driving down energy costs through an all-of-the-above approach, and that includes putting clean, affordable solar power that you can simply plug in directly into the hands of New Jerseyans,” said Governor Sherrill in a statement. “Balcony solar is a practical, easy-to-use tool that can help families save money while allowing more people to participate in our clean energy future. This bill cuts unnecessary red tape, expands access to affordable solar power, and proves that affordability and sustainability can go hand in hand.”
Notably, the bill also contains provisions that restrict landlords and homeowners’ associations (HOAs) from prohibiting the use of portable solar generation devices, so long as renters (or homeowners subject to HOA oversight) abide by “reasonable restrictions concerning the size, placement, or manner of placement of a portable solar generation device on the exterior of a unit owner’s or tenant’s premises.”
News of the law was celebrated widely among advocates and industry representatives. “By making solar more accessible, New Jersey is building a fairer, more affordable energy system where everyone can share in the benefits of clean power,” said Elowyn Corby, Senior Regional Director for the Mid-Atlantic, Vote Solar Action Fund. “We are grateful Governor Sherrill has stood with New Jersey families and taken a major step toward a clean energy future that delivers greater energy affordability and access to solar.”
“By signing this law, Governor Sherrill and legislative leaders have taken another big step in making solar energy more affordable and accessible for New Jerseyans,” said Stephan Scherer, CEO and co-founder of CraftStrom, a company that sells balcony solar equipment. “As the most densely populated state in the nation, New Jersey is built for plug-in solar: it takes just an hour to install, fits on apartment and condominium balconies, and cuts utility bills immediately. New Jersey is sending a clear signal that the future of solar is portable, affordable, and consumer-led.”
Plug-in solar bills in other states (such as the recently-passed California Plug and Play Solar Act) do not contain similar protections for renters and HOA members. 
With Sherrill’s signature, New Jersey becomes the ninth state in the nation to enact a plug-in solar law. Laws in two other states — New York’s SUNNY Act and the aforementioned California legislation — await action from governors in those states.
The Garden State Balcony Solar Act bill will take effect on March 1, 2027, giving the state Board of Public Utilities time to take action necessary to implement the law’s provisions.
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ARENA funds 20 Australian PV research projects with AUD 105.6 million – solarbytes.info

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The Australian Renewable Energy Agency (ARENA), an Australia-based renewable energy agency, has announced new funding for solar research and development. ARENA will provide up to AUD 105.6 million (~$74.98 million) for 20 projects focused on advancing ultra low-cost solar. This represents the agency’s largest single investment in PV research and development to date. The selected projects are divided between research on cells and modules and work covering BOS, O&M. Across the two categories, each covering three focus areas, the program will address cell and module efficiency, cost and stability, alongside deployment costs, O&M expenses and solar yield. ARENA initially allocated AUD 60 million (~$42.60 million) before increasing the total funding pool to AUD 105.6 million (~$74.98 million). The program supports ARENA’s ambition to reduce installed solar costs to 30 cents per watt by 2030.
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Megasol adds ZRM+ low-glare glass to LEVEL Up solar roofs – solarbytes.info

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Swiss solar manufacturer Megasol has upgraded its LEVEL Up roof-integrated photovoltaic system to feature its low-glare ZRM+ (Zero Reflect Matt+) microstructured glass as standard. Designed to mimic the low reflectivity of conventional clay tiles, the surface keeps reflection levels between 3,000 and 18,000 cd/m²—well under the 20,000 cd/m² regulatory threshold confirmed in tests by Bern University of Applied Sciences. The frameless glass-on-glass module delivers over 200 Wp/m² with Class 5 hail resistance and CEN/TR 15601 rain tightness, immediately replacing earlier product lines. LEVEL Up with ZRM+ replaces all previous product variants. It is also available immediately for residential, commercial and sensitive planning zones.
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Croatia opens €38 million solar subsidy scheme with new battery support – croatiaweek.com

 
ZAGREB, 1 September 2026 – Croatian households will be able to apply for a share of €38 million in government-backed renewable energy subsidies from Wednesday, with battery storage included in the scheme for the first time. 
Applications open at 9am on 2 September through the electronic system of the Environmental Protection and Energy Efficiency Fund (FZOEU).
The programme supports the installation of heat pumps, photovoltaic systems for household consumption and battery storage systems.
Households can receive up to 50% of eligible investment costs, while households at risk of energy poverty can receive up to 70%.
Depending on the investment, subsidies can reach up to €6,250 for a heat pump, €6,000 for a photovoltaic system and €5,600 for a battery storage system. For households at risk of energy poverty, the maximum combined support can be considerably higher.
The introduction of battery subsidies is one of the main changes this year. Batteries can be financed only together with a photovoltaic installation and are intended to allow households to store excess electricity for later use.
The Fund says applications will be accepted electronically and has urged potential applicants to prepare their documentation and ensure they have the required NIAS electronic identification credentials.
The scheme is part of Croatia’s wider efforts to increase household energy independence and renewable energy use.

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Solar company plans 300-job manufacturing facility near OKC – The Journal Record

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By : Journal Record Staff//September 1, 2026//
Mass production at the 2GW solar cell facility in Oklahoma is expected to begin in March 2027. (Photo/Nextnova)
Solar company plans 300-job manufacturing facility near OKC
Mass production at the 2GW solar cell facility in Oklahoma is expected to begin in March 2027. (Photo/Nextnova)

By : Journal Record Staff//September 1, 2026//
OKLAHOMA CITY — , a new brand under , has announced plans to build a 2-gigawatt n-type solar cell facility outside City, adding to the state’s growing solar footprint.
The facility is expected to create about 300 at launch, with construction set to begin in November. Mass production is slated to start in March 2027, and the company said the site is designed to scale up to 5 gigawatts of annual capacity as demand grows.
The announcement comes as the U.S. faces a supply gap between solar module and solar cell production capacity — the country currently has about 11 gigawatts of cell-making capacity compared with more than 74 gigawatts of module capacity, according to industry estimates. Recent on imported solar materials have added urgency to expanding domestic cell production.

The project adds to a string of solar manufacturing investments in Oklahoma in recent years, including ‘s $620 million wafer facility in .


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From scale to longevity: Building solar assets that last – ET EnergyWorld

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Solar PV boost for Nelson Mandela University – Nelson Mandela University

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01/09/2026
More than 8 500 new solar photovoltaic (PV) panels/modules are set to significantly boost Nelson Mandela University’s renewable energy capacity across its seven campuses – six in Gqeberha and one in George.
 

Dr Andre Hefer: Sustainability Engineer, Infrastructure Services and Sustainability Department 
“The platform will generate 4.4 megawatts (MW) of solar power by the end of 2026 – enough to supply 25 – 30% of the University’s total electricity needs,” says the University’s sustainability engineer, Dr Andre Hefer, from the Infrastructure Services and Sustainability Department.
“Construction started in mid-November 2025, and we are already generating solar power on our Summerstrand North Campus and the Ocean Sciences Campus. All the campuses will be generating power by the end of November 2026.”
Extensive use is being made of car port roofs to accommodate the solar panels. Where necessary, old asbestos and timber carports are being replaced with smart aluminium, offering greater longevity and making better suited for the University’s coastal campuses.
The solar platform is a strategic investment project driven by the Vice-Chancellor and Deputy Vice-Chancellors to generate sustainable savings for the University in support of its long-term sustainability framework, including lowering its carbon footprint.
Melvin Syce: Senior Director: Infrastructure Services and Space Optimisation 
The project is being managed through the University’s Infrastructure Services and Space Optimisation Directorate, led by Melvin Syce, who explains: “The decision by the University leadership to significantly boost solar generation capacity came on the back of the major load-shedding experienced in 2023 when the University was without Eskom supplied electricity for what amounted to a third of the year. We had to resolve the issue as a matter of urgency, for both operational and financial reasons.”
Dr Hefer broke down the financial impact of the power outages, adding that the significant investment into this project would result in long-term savings.
“During the outages, for example, we were using 6000L of diesel per day in our generators at a cost of about R150 000 per day, which was not sustainable. With our new system we can downscale the diesel use to 10 – 20% of the previous use.”
Dr Hefer says the new solar platform is valued at R68-million and is being funded by the University.
“It is expected to save the University between R8-million and R10-million annually on our annual electricity bill of about R60-million.”
PVinsight (Pty) Ltd CEO physicist Prof Ernest van Dyk and the mobile lab for testing PV panels/modules
A sample of the panels was checked on arrival by PVinsight (Pty) Ltd – a specialist solar photovoltaic (PV) module testing, inspection and consulting company based on the Ocean Sciences Campus and led by its CEO, physicist Professor Ernest van Dyk.
PVinsight was spun out of the Photovoltaics Research Group (PVRG) in the University’s Department of Physics. PVinsight has the only SANAS-accredited ISO 17025 mobile laboratory testing service in South Africa for field testing.
“Solar plants at the commercial and industrial level are a major financial investment and it’s hugely important to have solar modules independently tested on arrival and on-site once installed to make sure they meet the manufacturer’s specifications,” says Prof Van Dyk.
“A documented, independently verified report of module condition can be compared against any future assessment of weather damage or degradation.”
South Africa’s largest insurers say claims for weather-related damage to solar assets have exponentially increased. As insurers tighten cover and claim conditions, the burden of proof on solar plant owners will increase.
“Over and above the solar platform, we have invested in a centralised generator system to ensure continuity of power throughout the University as our current generators only power up essential buildings, such as the main administration building, medical and science laboratory refrigerators and server rooms,” says Syce.
“Our residences were not powered which was a problem for students needing to study, although we always provide rechargeable lamps and gas stoves for cooking.”
The combined system will ensure that the University can continue operating during power outages and throughout the night, while reducing its carbon footprint in line with its value of environmental stewardship.
“We are also partnering with Etana Energy, an Independent Power Producer (IPP) that uses the Eskom grid to wheel wind and solar energy to users,” Hefer explains. “In combination, this will give us close to 80% of our total power needs from renewable sources. Etana will start to generate electricity from May 2027 as they already have approved and secured grid capacity.”
This is the second solar PV plant that the University has invested in. The first 1MW plant, installed on its Summerstrand South Campus, has been producing solar energy since June 2019 through a power purchase agreement where the institution pays for the electricity generated for the first ten years, after which it takes over ownership of the plant.
“We were the second-largest solar installation in the Nelson Mandela Metro at the time – the other one was at Volkswagen,” says Hefer. “This time around we realised a self-financing approach is a far better model for us. Owning the platform from day one is the way we will go for any future enhancements.”

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Delhi hikes solar panel subsidy, free panels for homes using up to 400 units: CM Rekha Gupta | India News – Hindustan Times

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The Delhi government announced an ambitious plan on Tuesday to raise the state subsidy for residential rooftop solar installations in the national capital to 78,000, a move that would slash the upfront cost of setting up the clean energy system.
Chief minister Rekha Gupta said households with a monthly consumption of 400 units of electricity or less would effectively be eligible for a fully funded 3-kilowatt rooftop solar system under the revised Delhi Solar Policy.
Under the changes made to the 2023 policy, the Delhi government will offer subsidies of up to 78,000 for a 3-kw solar panel system. Paired with equal funding from the central government’s PM Surya Ghar initiative, the total incentives will effectively cover the setup cost for standard 2- and 3-kw units.
Gupta said the government has targeted installing rooftop solar systems in 230,000 households across Delhi by March 2027.
Also Read: The supply chain behind solar panels
“The government not only wants to reduce people’s electricity bills but also to support the installation cost of solar panels. The government will provide free rooftop solar panels to all households with monthly electricity consumption of 400 units,” Gupta said at a press conference.
Apart from the state subsidy of 78,000 for a 3-kW system, the policy also proposes an additional state top-up of 19,000 for consumers using up to 400 units of electricity a month. This would cover the installation cost of 1.75 lakh for a 3-kw system.
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NV Energy accepting applications for expanded solar access program – FOX5 Vegas

LAS VEGAS (FOX5) — NV Energy will begin accepting applications Sept. 1 for its Expanded Solar Access Program, which provides income-qualified residential customers access to solar energy from utility-scale and community-based solar resources at a guaranteed lower rate without installing solar panels.
MORE ON FOX5: NV Energy files to cut electric rates for Southern Nevada Customers
Through the program, eligible customers receive a discount on the energy portion of their electric bill while supporting the development of additional clean energy resources in Nevada. In 2026, program participants are saving an average of 8% to 9% on electric consumption, depending on their customer rate.
Applications will be accepted online from Sept. 1 through Oct. 31, 2026. Customers may also apply through MyAccount or by mailing a completed application and supporting documentation to NV Energy.
To qualify, customers must be a bundled residential NV Energy customer and have a household income at or below 80% of the Area Median Income as defined by the U.S. Department of Housing and Urban Development, or provide documentation demonstrating eligibility through a qualifying assistance program.
Customers currently enrolled in the program who wish to continue participating in 2027 must also complete the recertification process by Oct. 31, 2026, and submit updated eligibility documentation. Current participants will receive additional information by email and U.S. mail.
Applying to the program does not guarantee enrollment. The program has a set annual capacity limit. If the number of eligible applicants exceeds available capacity, a lottery will be conducted in December to determine participation.
As part of changes approved for the program, the Disadvantaged Business/Nonprofit and Eligible Premises categories will close effective Jan. 1, 2027, transitioning available capacity to income-qualified residential customers.
For more information about eligibility requirements and available savings, visit NV Energy.
Copyright 2026 KVVU. All rights reserved.

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Catlin Approves Solar, Wind Ordinance – vermilioncountyfirst.com

THE FOLLOWING IS A NEWS-GAZETTE ARTICLE BY JENNIFER BAILEY
 
CATLIN — Starting today, Catlin Mayor Justin Bargo said, companies can submit special-use permit applications for wind and solar projects to the village.
Late last week, the village council approved a wind and solar ordinance to regulate such projects, including Earthrise Energy’s proposal for a 1,400-acre solar-farm project along Catlin-Tilton Road. And on Monday, a previous moratorium on solar-farm projects finally expired.
The ordinance outlines the special-use permit application and public hearing process for a proposed wind- or solar-energy system, which is to include a detailed site plan addressing site maintenance, setbacks and other issues. Relevant noise, shadow flicker, wildlife and environmental impact studies also must be completed, in addition to plans for site drainage and eventual decommissioning of the project.
Rural Catlin resident Patty Jones said it’s “very disappointing” that some language was taken out of the approved ordinance regarding water and well testing, as one of the biggest concerns voiced by the public has been regarding water safety.
 
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China's photovoltaic power capacity overtakes coal-fired power for first time – bastillepost.com

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China’s installed photovoltaic (PV) power capacity has surpassed coal-fired power capacity for the first time, making PV the country’s largest power source by installed capacity, the National Energy Administration said on Tuesday.
China’s installed PV power capacity reached 1.286 billion kilowatts at the end of July, edging past coal-fired power capacity of 1.285 billion kilowatts, according to the administration.
By the end of July, PV power accounted for more than 30 percent of China’s total installed power generation capacity. Measured by newly added capacity, the share rose to more than 40 percent in the first seven months, underscoring the rapid expansion of the PV sector.
“This achievement marks a historic reshaping of China’s power supply structure. It ends coal-fired power’s long-held position as the country’s top power source. New energy is rapidly evolving from a backup resource into a core installed power source and the construction of a new-type power system centered on renewable energy is gathering pace,” said Hao Yingjie, secretary-general of China Electricity Council.
But constrained by day-night cycles and weather conditions, the utilization hours of PV power remain far lower than those of coal-fired power, industrial insiders noted. In the short term, coal fired power will remain China’s critical supporting resource and serve as the power system’s safety backstop. To turn the advantages of large-scale installed new-energy capacity into stable and reliable power supply, it is crucial to speed up the construction of the new-type power system.
“Efforts will be made to enhance the power system’s flexible regulation capability, strengthen the construction of a new-type power grid platform that promotes coordinated development of transmission, distribution, and microgrids, reinforce the large grid’s capability to accommodate, allocate, and regulate new energy, improve the reliable substitution capacity of new energy, and drive the transformation of photovoltaic power from weather-dependent to dispatchable and predictable,” said Hao.
China’s photovoltaic power capacity overtakes coal-fired power for first time
China’s photovoltaic power capacity overtakes coal-fired power for first time
Agreements signed between China and Kyrgyzstan at the 2026 Shanghai Cooperation Organization (SCO) Summit in Bishkek are expected to inject fresh momentum into Kyrgyzstan’s growing technology sector, especially in digital economy, artificial intelligence (AI) and clean energy, an expert said.
The summit, held Monday and Tuesday in the Kyrgyz capital, ran under the theme “25 Years of the SCO: Together Towards Sustainable Peace, Development, and Prosperity” and brought together leaders from more than 20 countries.
In an interview with China Global Television Network (CGTN), Chubak Temirov, deputy director of the High Tech Park of the Kyrgyz Republic, said the SCO’s 25 years of trust now pave the way for joint technology ventures beyond Kyrgyzstan’s domestic market.
“The SCO spent 25 years building relationships and trust between our countries, between China and Kyrgyzstan and all other members. And I believe the next stage should be about building things together, in relation to technology; technologies, companies, research, products, and maybe new markets. Today, technology company in Bishkek doesn’t necessarily think only about our domestic market, which is only 7.4 million people. We think broader, in relation to all SCO countries, or even global market,” Temirov said.
In his meeting with Kyrgyz President Sadyr Japarov on Monday, Chinese President Xi Jinping said China and Kyrgyzstan should work together to build the Belt and Road Joint Laboratory and strengthen cooperation in areas including AI.
Echoing President Xi’s words, Temirov identified local-language AI applications as the most immediate opportunity for Kyrgyzstan, while emphasizing that the best form of technology transfer lies in building local capacity to develop future products independently — a partnership model that could deepen bilateral collaboration following the summit.
“I think the immediate practical opportunities for Kyrgyzstan in AI would be the local language AI. For example, let’s imagine just a farmer in rural area, in some remote mountain in Kyrgyzstan, as you know, Kyrgyzstan is a mountainous country, could speak to an AI assistant in Kyrgyz language and receive information about weather, maybe agriculture. A student could have an AI tutor, for example, in his own language, in native language. Or a citizen could interact with digital public services, right? Digital public services now, in every country, are becoming a major trend of digitalization. Everyone now, just sitting from home, can get any public service s and get different things to make his life easier, right?” he said.
“China has a big scale from infrastructure and a mature AI ecosystem. The best technology transfer is not when you receive any finished product. As I said, it’s when your people gain capability to build already the next product themselves, right? This is the kind of China-Kyrgyzstan technology partnership I would see as a really good example. I truly believe that after this summit, we can go to a new layer of friendship and collaboration. And I see more opportunities between China and Kyrgyzstan in AI in general, and in other technologies,” he added.
China, Kyrgyzstan double down on tech innovation at SCO Summit
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Special incentive package announced for installing rooftop solar panels – dailyasianage.com

Published:  12:18 AM, 02 September 2026

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China's installed solar energy capacity has surpassed that of coal-fired power for the first time, the national energy body said Tuesday, hailing the milestone. | via ANC 24/7 Link to full story in the comments section. – facebook.com

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Emmitt Smith Accused of Running $2.5M Scheme on Solar Deal – Front Office Sports

A Native American investor says it was duped into providing a $2.5 million loan for a solar project that was never repaid.
Pro Football Hall of Famer Emmitt Smith is accused of cheating a Native American investor out of $2.5 million. He allegedly used money meant to fund a Texas solar project to instead pay back a company that had previously invested in his ventures.
The lawsuit, filed Monday in Delaware’s Chancery Court, comes from Kituwah LLC, the tribally-owned investment and economic development arm of the Eastern Band of Cherokee Indians. It claims the former Cowboys running back, his longtime business partner David Mosley, and their commercial real estate company, 4 13 Solutions Inc., convinced Kituwah to provide a $2.5 million loan for the purported solar project. However, Kituwah says it has “not recovered a penny” despite the loan being more than two years past due and numerous requests for repayment.
According to the suit, the “ploy” began in early 2023. Kituwah was fed a “steady stream of lies,” about the deal, the suit says, including that it would be a partner in the planned Project Exodus solar farm, that the U.S. Department of Energy would eventually provide “permanent financing,” and that the solar farm would be “up and running” by the end of 2024. Kituwah was convinced to provide the loan due to “false projections and data” and a misrepresentation of the level of interest and potential investments from others. It was promised repayment “in a matter of months.”
In truth, the lawsuit alleges, Smith and the other defendants secretly earmarked the $2.5 million to “improperly pay” an entity called Wilson Holdings, which they have previously partnered with on other investments. Wilson Holdings is also named as a defendant in the lawsuit.
“Kituwah poured substantial time, efforts, and resources in the purported joint venture,” the suit says. “Not only has Kituwah not seen any returns on its investment, Kituwah has been forced to expend additional costs in efforts to reclaim the amounts it is still owed pursuant to its investment, including to investigate what happened to its money.”
The loan allegedly came due Feb. 1, 2024, but was not repaid. Additionally, Kituwah “has not seen any evidence that Project Exodus has made any meaningful progress towards completion.” It launched its own investigation, which led to the lawsuit, and as part of that probe it determined the defendants’ use of the $2.5 million was “essentially, like a Ponzi scheme.”
The suit includes six causes of action, including fraudulent inducement, breach of fiduciary duty, and breach of contract. It says close to $600,000 in interest has accrued on the loan, meaning the current balance is over $3 million. Kituwah says that last year it offered to waive that interest if the loan was repaid by Aug. 31, 2025, but this effort to “work out a resolution” was “effectively ignored,” like its other requests.
The lawsuit seeks at least $2.5 million, plus interest, costs, and expenses, as well as additional damages to be determined at trial. It also requests attorneys’ fees and other costs associated with bringing the lawsuit, plus “further relief as the court deems just and proper.”
A representative for Kituwah did not immediately respond to a request for additional comment. Representatives for the defendants could not immediately be reached.
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Cowboys legend tied to alleged multimillion-dollar solar Ponzi scheme – Chron

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Tesla killing Solar Roof is leaving installers with six-figure losses – electrek.co

Tesla’s abrupt decision to kill its Solar Roof has left the third-party contractors who sold and installed the product absorbing the fallout — including some who told Electrek they sank hundreds of thousands of dollars into the program and now have little to show for it.
Tesla stopped supplying the solar tiles in August, notifying its network of certified installers that it would ship only conventional solar panels going forward.
The scale of the retreat is striking. Over roughly seven years, Tesla installed only about 3,000 Solar Roof systems across the US, peaking at just 21 to 32 installations a week — more than 95% short of Elon Musk’s repeated promise of 1,000 weekly installations by 2019-2020.
We reported last month that Tesla discontinued the Solar Roof after deciding internally that the product “is not financially viable”. The tesla.com/solarroof page now redirects to the company’s solar panel page, and “Solar Roof” has been stripped from the Energy navigation menu. It was the quiet end of a product that had been on life support for more than a year.
The people left cleaning up are the certified roofers and solar contractors Tesla leaned on to actually put the product on houses.
In a report published this week, Roofing Contractor spoke to several of them, including Elevated Roofing & Siding in Dayton, Ohio, PGT Home Energy Solutions in Tempe, Arizona, Westfall Roofing in Florida, and Saguaro Solar, Electric & Roofing in Tucson.
Becoming a Solar Roof installer was not a weekend course. Contractors had to send crews to multi-week training on the West Coast, and some were required to complete three supervised installations before they were certified.
“It wasn’t simply taking a training; there was investment in learning the system,” Westfall Roofing president Ryan Westfall told the outlet.
That investment produced a product that took roughly two-plus weeks to install, versus about two days for a conventional rack-mounted solar system. Now contractors are scrambling to redesign active projects or swap in alternative systems mid-pipeline.
Electrek also spoke with installers who said they had poured hundreds of thousands of dollars into supporting the Solar Roof — building crews, tooling, and training around it — and are now left with almost nothing to show for it.
Several were reluctant to say so publicly. They still carry other Tesla energy products, including solar panels and Powerwall, and worried that criticizing the company openly could jeopardize those relationships.
That is the bind Tesla’s certified installers are in: dependent on a brand that just walked away from a product line they built a business around, while still needing to sell its remaining hardware.
Tesla has said it will honor existing warranties and continue to provide replacement parts for the existing Solar Roof systems already installed. Contractors aren’t convinced that will hold up over the 25-year life of these roofs.
PGT Home Energy Solutions owner Greg Field expressed skepticism about long-term parts availability, and Exact Solar’s Aaron Nichols warned of a “much higher labor cost for anyone needing help,” given how labor-intensive the tiles are to service and how complex their electrical connections are.
Todd Miller of Isaiah Industries argued Tesla treated the Solar Roof primarily as a piece of solar technology rather than a roofing product — and underestimated the complexity of the roofing business it was wading into.
Our earlier reporting that Tesla was phasing out its own installations in favor of third-party certified installers reads very differently in hindsight.
At the time, handing installation to a network of local certified contractors looked like a rational retreat from what Tesla itself called a “low-margin, labor-heavy, local business.” But the abrupt killing of the Solar Roof hurt those installers far more than it hurt Tesla — precisely because Tesla had already gotten out of the business of carrying and installing the product.
Tesla offloaded the hardest, least profitable part of the Solar Roof — the physical install and the customer relationship — onto small local companies, let them absorb the training and tooling costs, and then pulled the product out from under them. Tesla keeps a manageable warranty liability on 3,000 roofs. The installers keep the stranded investment, the abandoned pipelines, and the awkward job of servicing a discontinued product for the next two decades.
Building-integrated solar isn’t dead, and several of these contractors say they’d do it again — but only for a manufacturer that commits to long-term support and parts. After watching Tesla treat its partners this way, how many will trust the next company that comes knocking?
Thinking about rooftop solar despite Tesla’s exit? It makes sense because solar panels are much more affordable than solar roof tiles. A trusted, hassle-free way to go solar is through EnergySage. They provide free, no-obligation quotes from vetted, pre-screened installers in your area, so you can compare options with real transparency. Unbiased Energy Advisors help you every step of the way, at no cost to you. Plus, financing options like $0-down solar loans and leases/PPAs mean there’s no upfront cost to going solar. Get your free quotes here.
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Solar module overcapacity drags factory utilisation down to 35-40%: Report – Business Standard

Solar module overcapacity drags factory utilisation down to 35-40%: Report  Business Standard
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This Solar-Powered Car Backed By BMW Is Designed To Make More Energy Than It Uses Daily – SlashGear

If you design it right, a primarily solar-powered car is very much a possibility. That’s exactly what a team from Clemson University, which runs an automotive engineering graduate program, did. Better yet, they claim that their invention, developed with the aid of BMW, ends most days with more energy than it started with. The car is a product of Clemson’s Deep Orange program and bears the name Luminetta, a nod to what the car runs on: sunlight.
At first glance, it doesn’t immediately look like a solar-powered car. That’s because, unlike the handful of electric cars with solar panel roofs, the Luminetta’s solar cells are part of the outer body panels. These panels contain more than 1,700 photovoltaic cells that basically cover the whole outside of the car. The cells are co-engineered by Germany’s Fraunhofer Institute for Solar Energy Systems ISE, a solar research lab. They’ve been specially designed to keep producing even when a tree or a garage pillar shades part of them.
The car can generate as much as 5.7 kWh over the course of a day. According to the team’s estimates, the energy generated is enough for roughly 31 extra miles of range on average, assuming a standard commute of 12 miles daily. The team came up with this estimate based on models of sunlight in Greenville, South Carolina; Frankfurt, Germany; Madrid, Spain; and Mumbai, India.
The Luminetta isn’t just clever; it’s also light. It weighs just 1,212 pounds, which is around a quarter of a similarly-sized production car. That odd shape contributes to its energy efficiency, too. The students drew inspiration from the boxfish, which has a blocky body that allows it to move through water with surprisingly little drag. The flat sides also give the solar cells far more room than any curved body would. None of this comes at the cost of safety; occupants are protected by structural steel, with aluminum, carbon fiber, and 3D-printed metal joints, also used for their lightweight and stiff nature.
While the numbers are impressive, it’s important to note that the Luminetta’s energy-positive claim rests mostly on Clemson’s modeling. For them to prove the energy figures survive in the real world, they’d have to log miles of real commuting, spread across the full year. Things like parking the car underground or the weather staying gray for a week or longer could very well wreck the math.
Regardless, Clemson will be showcasing the Luminetta at CES Las Vegas in 2027. While we may never see this specific project hit the streets, it’ll be interesting to see whether any of it will end up featuring on a future BMW EV. Something to rival Aptera’s solar-powered three-wheeler, perhaps?

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BEST’s Green Leap: Solar Power and Battery Storage to Power Mumbai’s Future; Will Take Green Energy Share – The Times of India

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Encore RE installs 2.2-MW solar project atop New Hampshire capped landfill

A 2.25-MW solar array atop a closed and capped municipal landfill in Derry, New Hampshire, is now online. The project was developed by Encore Renewable Energy and should save Derry taxpayers an estimated $4 million in electricity costs over the next 25 years. “Landfills like this one are often untapped resources in the clean energy transition,”…

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Photovoltaics Market to Reach USD 968.32 Billion by 2030, Growing at 9.6% CAGR, Says MarketsandMarkets™ – globenewswire.com

 | Source: MarketsandMarkets Research Pvt. Ltd. MarketsandMarkets Research Pvt. Ltd.
Delray Beach, FL, Sept. 01, 2026 (GLOBE NEWSWIRE) — The global Photovoltaics (PV) Market is projected to grow from USD 613.57 billion in 2025 to USD 968.32 billion by 2030, at a CAGR of 9.6% from 2025 to 2030, according to a new report by MarketsandMarkets™. Growth is being driven by rising government incentives and policy support for solar energy adoption, including subsidies, tax credits, feed-in tariffs, and net metering schemes that continue to improve the cost and return on investment of PV systems across residential, commercial, and utility-scale applications. The market’s installation-type segments include ground-mounted, building-integrated photovoltaics (BIPV), and floating PV systems.
Get PDF Brochure — Market Data & Segmentation:
https://www.marketsandmarkets.com/pdfdownloadNew.asp?id=428
Key Market Highlights
Why This Market Matters
Solar power has moved from a niche environmental choice to a mainstream energy source shaping how homes, businesses, and entire national grids are powered. As panel and battery prices keep falling and government incentives make the payback period shorter, photovoltaic systems are showing up everywhere — on rooftops, across utility-scale solar farms, floating on reservoirs, and increasingly built directly into the facades and windows of buildings through BIPV technology. That expansion matters well beyond the energy sector: it’s reshaping construction standards, corporate sustainability commitments, and national energy security strategies simultaneously. As climate goals push governments and industries to decarbonize faster, the photovoltaics market is one of the clearest real-time indicators of how quickly the world is actually shifting toward renewable power.
Market Overview
According to the Solar Energy Industries Association (SEIA), photovoltaic (PV) devices generate electricity directly from sunlight via an electronic process that occurs naturally in certain types of semiconductor materials, where electrons freed by solar energy are induced to travel through an electrical circuit, powering electrical devices or feeding electricity to the grid. The market is segmented by component (modules, inverters, balance of system), type (rigid, flexible), material type (silicon, copper indium gallium selenide/CIGS, cadmium telluride/CdTe, perovskite, organic photovoltaic, quantum dot), cell type (full-cell, half-cell), installation type (ground-mounted, building-integrated photovoltaics, floating), and application (residential, commercial & industrial, utilities), with the report covering North America, Europe, Asia Pacific, and the Rest of the World across 20 countries. Within installation type, building-integrated photovoltaics — where PV modules are incorporated directly into rooftops, windows, and building facades — represents a distinct growth segment alongside conventional ground-mounted and floating installations.
Analyst Perspective
According to MarketsandMarkets™, the decreasing cost of energy storage devices is a primary driver of the market, as improvements in solar panel manufacturing, enhanced module efficiencies, and economies of scale have sharply reduced the levelized cost of electricity (LCOE) from solar sources over the last decade, with advancements in materials such as PERC cells, bifacial modules, and thin-film technologies improving performance while lowering production costs. Analysts see rapid advances in perovskite PV technology as the market’s biggest opportunity, as perovskite materials promise higher solar cell efficiency, flexibility, and affordability through simpler manufacturing processes and cheaper materials, with their compatibility with flexible substrates opening new possibilities in lightweight, portable, and building-integrated photovoltaic applications. At the same time, a shortage of skilled workforce for PV installation remains a significant restraint, as global demand for solar energy rises faster than the pipeline of qualified technicians, engineers, and maintenance professionals, particularly in developing economies. Legal issues related to land allotment for solar deployment are also flagged as a key challenge, as large-scale solar farms require extensive flat, high-irradiance land, and procuring it often involves complex regulatory permits, prolonged negotiations, and land ownership and environmental disputes.
Inquiry Before Buying — Get Custom Insights: https://www.marketsandmarkets.com/Enquiry_Before_BuyingNew.asp?id=428
Segment Analysis
By Component: Balance of System (BOS) is expected to hold the largest market share during the forecast period, given its high collective cost relative to other components and its critical role in supporting overall solar power infrastructure — encompassing inverters, mounting structures, wiring, switches, junction boxes, monitoring systems, and energy storage — with demand for advanced BOS solutions rising as installations grow in size and complexity.
By Type: Rigid panels are expected to hold the larger market share, owing to their widespread use in residential, commercial, and utility-scale installations, higher efficiency rates, lower maintenance requirements, and longer operational life compared with flexible alternatives.
By Material Type: Silicon is expected to dominate the market, given its widespread acceptance, proven performance, and cost-effectiveness; whether in monocrystalline or polycrystalline form, silicon remains the primary material for solar cell production due to its high energy conversion efficiency, long lifespan, and wide availability, further supported by advances such as PERC and bifacial modules.
By Cell Type: Half-cell PV modules are expected to hold the largest market share, due to their higher efficiency, lower resistive losses, and improved shade tolerance compared to traditional full-cell modules, making them well suited for both residential and utility-scale installations.
By Installation Type: Floating PV is expected to register the higher CAGR during the forecast period, given its ability to overcome land constraints by utilizing underused water bodies such as reservoirs, lakes, and canals, offering the dual benefit of generating clean energy while reducing water evaporation and algae growth. Building-integrated photovoltaics, installed across residential and commercial building rooftops and windows, continues to expand as an architecturally integrated alternative to conventional ground-mounted systems.
By Application: Utilities is projected to capture the largest share of the market in 2030, driven by large-scale solar farm deployments, rising energy demand, supportive government policies, and declining installation costs. Residential is expected to record the highest CAGR between 2025 and 2030, supported by growing consumer awareness of reduced electricity bills, long-term cost benefits, and energy independence, along with net metering policies, tax rebates, and increasingly compact, aesthetically integrated PV system designs.
Regional Analysis
Asia Pacific is expected to hold the largest share of the global photovoltaics market in 2030 and is also projected to be the fastest-growing region during the forecast period, driven by robust solar deployment policies, growing energy demand, and strong manufacturing capabilities. Countries such as China, India, Japan, South Korea, and Australia are at the forefront of solar adoption, with China alone accounting for a significant portion of global PV module production and installations; India is expected to record the highest country-level CAGR in the region. The region benefits from high solar irradiance, large-scale land availability, and favorable policy frameworks, including feed-in tariffs, capital subsidies, and renewable energy targets supporting both utility-scale and rooftop solar projects. North America, Europe, and the Rest of the World also contribute to global demand, supported by net-zero emission targets, growing solar energy registrations, and expanding investment in renewable infrastructure across these regions.
Key Industry Trends
Competitive Landscape
MarketsandMarkets™ identifies Jinko Solar as a Star in the Photovoltaics Market Company Evaluation Matrix, leading with a strong market share and extensive product footprint. Star companies provide mature and reputable products and services that meet the requirements of most applications, industries, and regions worldwide. GCL-SI is recognized as an Emerging Leader, gaining visibility with its enhanced portfolio of photovoltaic products. Major market players — including Jinko Solar, JA SOLAR Technology, and Trinasolar — have adopted both organic and inorganic strategies, entering into partnerships and agreements to cater to growing global demand.
Related Reports
Thin-Film Photovoltaic Market
Perovskite Solar Cell Market
Delray Beach, FL, Sept. 01, 2026 (GLOBE NEWSWIRE) — The global Data Center Liquid Cooling Manifolds Market is projected to grow from USD 0.94 billion in 2026 to USD 6.33 billion by 2033, at a CAGR…
Delray Beach, FL, Aug. 31, 2026 (GLOBE NEWSWIRE) — MarketsandMarkets™ projects the global respiratory care devices market will grow from USD 23.6 billion in 2025 to USD 33.6 billion by 2030, at a…

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Interior Department pauses BLM's plans for proposed Boulder City data center – ktnv.com

LAS VEGAS (KTNV) — The Interior Department is pausing the Bureau of Land Management’s plans to allow a data center to be built near Boulder City.
On Tuesday, the Interior Department’s Board of Land Appeals issued a stay, in favor of Boulder City and environmentalists.
According to the new filing, Townsite Solar 2 LLC was granted a right-of-way (ROW) in 2023, which authorized the company to build a solar power plant with a battery storage system on BLM-managed land. To satisfy requirements with the National Environmental Policy Act (NEPA), BLM studied the potential environmental impacts of the power plant.
Townsite Solar 2 had originally planned to build a data center on a parcel of land near Interstate 11 and U.S. 95. However, the company withdrew its application due to public backlash and concerns from Boulder City officials.
That’s when company officials approached the BLM to change their ROW for the same site but instead of building a solar power plant, they requested authorization for a data center including computer servers, network equipment, and a battery storage system twice the size of the proposed power plant’s.
“BLM did not study the effects of the data center project in a new or revised EA,” filings read in part. “BLM determined the data center is ‘essentially like’ the solar plant project and that it would have ‘similar anticipated impacts.'”
According to the Interior Department, those projects are not “substantially the same.”
“CBD [Centers for Biological Diversity] has demonstrated that permanent and irreparable harm is likely to occur to its members’ aesthetic and recreational interests in the project site, and those harms outweigh the temporary financial harm to Townsite from the delay,” filings state. “Furthermore, the public interest in the timely development of data center infrastructure does not outweigh the benefits of a thorough and open consideration of the potential environmental effects of that development, as NEPA requires.”
In July, city officials and Boulder City residents pushed back against plans for the data center.
“I don’t know in any world how they could have made the statement that that project is in any way similar to the original solar energy production and battery energy storage application that they did the NEPA for in 2023,” councilman Steve Walton said. “This is absolutely out of line, just ridiculous. I don’t know how they could even come to that conclusion.”
“This was never a good faith negotiation,” resident Grant Turner said. “They had a gun to our heads at all times. … I recommend that we fight them tooth and nail.”
You can read the decision from the Interior Department below.

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CMEI to invest $12m in space energy generation – Innovation News Network

The U.S. Department of Energy’s (DOE) Office of Critical Minerals and Energy Innovation has announced a $12 million funding opportunity to accelerate technical innovation and expand domestic manufacturing capabilities for solar panels in space applications.
“The next frontier for solar PV power generation is in space,” said Assistant Secretary of Energy Audrey Robertson. “As demand for space-grade PV skyrockets, this investment will establish American leadership in next-generation, space-based PV, bolster our national security, and enhance our economic competitiveness.”
Unlike terrestrial solar energy systems, which are subject to regular interruption by weather and the Earth’s rotation, space PV can deliver near-constant power. Space PV also has the potential to facilitate major advances in spaceflight and further the Trump Administration’s “space superiority” agenda.
Through the Space Photovoltaics (PV) Research and Development Partnership Intermediary Agreement (PIA) opportunity, DOE and partnership intermediary TechWerx are seeking projects that address the following topic areas:
University and industry research laboratories developing advanced, space-applicable PV technologies or specialising in PV characterisation and stress testing, as well as industry teams advancing near-commercial, pilot-scale space PV solutions with testing partnerships and the capability to fly PV prototypes or panels in space are encouraged to apply.
Expected individual awards are up to $1,500,000 for Topic 1 and up to $2,000,000 for Topic 2.
A webinar with additional information on this funding opportunity will be held at 1 p.m. on Sept. 15, 2026.
Applications must be submitted by 11:59 p.m. ET on Oct. 8, 2026.

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N.J. just made it easier for renters to slash their energy bills with plug-in solar panels – nj.com

N.J. just made it easier for renters to slash their energy bills with plug-in solar panels  nj.com
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Photovoltaics Market to Reach USD 968.32 Billion by 2030, Growing at 9.6% CAGR, Says MarketsandMarkets™ – GlobeNewswire

 | Source: MarketsandMarkets Research Pvt. Ltd. MarketsandMarkets Research Pvt. Ltd.
Delray Beach, FL, Sept. 01, 2026 (GLOBE NEWSWIRE) — The global Photovoltaics (PV) Market is projected to grow from USD 613.57 billion in 2025 to USD 968.32 billion by 2030, at a CAGR of 9.6% from 2025 to 2030, according to a new report by MarketsandMarkets™. Growth is being driven by rising government incentives and policy support for solar energy adoption, including subsidies, tax credits, feed-in tariffs, and net metering schemes that continue to improve the cost and return on investment of PV systems across residential, commercial, and utility-scale applications. The market’s installation-type segments include ground-mounted, building-integrated photovoltaics (BIPV), and floating PV systems.
Get PDF Brochure — Market Data & Segmentation:
https://www.marketsandmarkets.com/pdfdownloadNew.asp?id=428
Key Market Highlights
Why This Market Matters
Solar power has moved from a niche environmental choice to a mainstream energy source shaping how homes, businesses, and entire national grids are powered. As panel and battery prices keep falling and government incentives make the payback period shorter, photovoltaic systems are showing up everywhere — on rooftops, across utility-scale solar farms, floating on reservoirs, and increasingly built directly into the facades and windows of buildings through BIPV technology. That expansion matters well beyond the energy sector: it’s reshaping construction standards, corporate sustainability commitments, and national energy security strategies simultaneously. As climate goals push governments and industries to decarbonize faster, the photovoltaics market is one of the clearest real-time indicators of how quickly the world is actually shifting toward renewable power.
Market Overview
According to the Solar Energy Industries Association (SEIA), photovoltaic (PV) devices generate electricity directly from sunlight via an electronic process that occurs naturally in certain types of semiconductor materials, where electrons freed by solar energy are induced to travel through an electrical circuit, powering electrical devices or feeding electricity to the grid. The market is segmented by component (modules, inverters, balance of system), type (rigid, flexible), material type (silicon, copper indium gallium selenide/CIGS, cadmium telluride/CdTe, perovskite, organic photovoltaic, quantum dot), cell type (full-cell, half-cell), installation type (ground-mounted, building-integrated photovoltaics, floating), and application (residential, commercial & industrial, utilities), with the report covering North America, Europe, Asia Pacific, and the Rest of the World across 20 countries. Within installation type, building-integrated photovoltaics — where PV modules are incorporated directly into rooftops, windows, and building facades — represents a distinct growth segment alongside conventional ground-mounted and floating installations.
Analyst Perspective
According to MarketsandMarkets™, the decreasing cost of energy storage devices is a primary driver of the market, as improvements in solar panel manufacturing, enhanced module efficiencies, and economies of scale have sharply reduced the levelized cost of electricity (LCOE) from solar sources over the last decade, with advancements in materials such as PERC cells, bifacial modules, and thin-film technologies improving performance while lowering production costs. Analysts see rapid advances in perovskite PV technology as the market’s biggest opportunity, as perovskite materials promise higher solar cell efficiency, flexibility, and affordability through simpler manufacturing processes and cheaper materials, with their compatibility with flexible substrates opening new possibilities in lightweight, portable, and building-integrated photovoltaic applications. At the same time, a shortage of skilled workforce for PV installation remains a significant restraint, as global demand for solar energy rises faster than the pipeline of qualified technicians, engineers, and maintenance professionals, particularly in developing economies. Legal issues related to land allotment for solar deployment are also flagged as a key challenge, as large-scale solar farms require extensive flat, high-irradiance land, and procuring it often involves complex regulatory permits, prolonged negotiations, and land ownership and environmental disputes.
Inquiry Before Buying — Get Custom Insights: https://www.marketsandmarkets.com/Enquiry_Before_BuyingNew.asp?id=428
Segment Analysis
By Component: Balance of System (BOS) is expected to hold the largest market share during the forecast period, given its high collective cost relative to other components and its critical role in supporting overall solar power infrastructure — encompassing inverters, mounting structures, wiring, switches, junction boxes, monitoring systems, and energy storage — with demand for advanced BOS solutions rising as installations grow in size and complexity.
By Type: Rigid panels are expected to hold the larger market share, owing to their widespread use in residential, commercial, and utility-scale installations, higher efficiency rates, lower maintenance requirements, and longer operational life compared with flexible alternatives.
By Material Type: Silicon is expected to dominate the market, given its widespread acceptance, proven performance, and cost-effectiveness; whether in monocrystalline or polycrystalline form, silicon remains the primary material for solar cell production due to its high energy conversion efficiency, long lifespan, and wide availability, further supported by advances such as PERC and bifacial modules.
By Cell Type: Half-cell PV modules are expected to hold the largest market share, due to their higher efficiency, lower resistive losses, and improved shade tolerance compared to traditional full-cell modules, making them well suited for both residential and utility-scale installations.
By Installation Type: Floating PV is expected to register the higher CAGR during the forecast period, given its ability to overcome land constraints by utilizing underused water bodies such as reservoirs, lakes, and canals, offering the dual benefit of generating clean energy while reducing water evaporation and algae growth. Building-integrated photovoltaics, installed across residential and commercial building rooftops and windows, continues to expand as an architecturally integrated alternative to conventional ground-mounted systems.
By Application: Utilities is projected to capture the largest share of the market in 2030, driven by large-scale solar farm deployments, rising energy demand, supportive government policies, and declining installation costs. Residential is expected to record the highest CAGR between 2025 and 2030, supported by growing consumer awareness of reduced electricity bills, long-term cost benefits, and energy independence, along with net metering policies, tax rebates, and increasingly compact, aesthetically integrated PV system designs.
Regional Analysis
Asia Pacific is expected to hold the largest share of the global photovoltaics market in 2030 and is also projected to be the fastest-growing region during the forecast period, driven by robust solar deployment policies, growing energy demand, and strong manufacturing capabilities. Countries such as China, India, Japan, South Korea, and Australia are at the forefront of solar adoption, with China alone accounting for a significant portion of global PV module production and installations; India is expected to record the highest country-level CAGR in the region. The region benefits from high solar irradiance, large-scale land availability, and favorable policy frameworks, including feed-in tariffs, capital subsidies, and renewable energy targets supporting both utility-scale and rooftop solar projects. North America, Europe, and the Rest of the World also contribute to global demand, supported by net-zero emission targets, growing solar energy registrations, and expanding investment in renewable infrastructure across these regions.
Key Industry Trends
Competitive Landscape
MarketsandMarkets™ identifies Jinko Solar as a Star in the Photovoltaics Market Company Evaluation Matrix, leading with a strong market share and extensive product footprint. Star companies provide mature and reputable products and services that meet the requirements of most applications, industries, and regions worldwide. GCL-SI is recognized as an Emerging Leader, gaining visibility with its enhanced portfolio of photovoltaic products. Major market players — including Jinko Solar, JA SOLAR Technology, and Trinasolar — have adopted both organic and inorganic strategies, entering into partnerships and agreements to cater to growing global demand.
Related Reports
Thin-Film Photovoltaic Market
Perovskite Solar Cell Market
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India’s 233 GW Solar Manufacturing Capacity Runs at Just 35–40% Utilisation: IEEFA – saurenergy.com

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India has emerged as one of the world’s major solar manufacturing hubs after moving from near-total import dependence in solar photovoltaics (PV). However, the rapid expansion of domestic manufacturing capacity is creating a new challenge, with production growing significantly faster than demand.
India’s solar PV module manufacturing capacity reached approximately 233 GW by June 2026. However, manufacturers are operating at just 35–40% capacity utilisation, well below the 50–65% level generally considered necessary for sustainable operations, according to the latest analysis by the Institute for Energy Economics and Financial Analysis (IEEFA).
The pressure is particularly acute at the module level, where capacity additions have significantly outpaced demand. The report estimates that around 135 GW of additional module capacity is backed by firm investment commitments and near-certain commissioning schedules, raising the risk of further overcapacity in the near term.
As demand catches up gradually, manufacturers could face increasing pressure on utilisation, margins and investment returns, with standalone module manufacturers particularly exposed to the risk of stranded assets.
Solar module exports from India
India currently has approximately 135 GW of future capacity additions backed by firm investment commitments and near-certain commissioning schedules. According to the research, this pipeline raises a clear risk of overcapacity in the near term. As demand catches up gradually, manufacturers could face growing pressure on utilisation, margins, and investment returns, increasing the risk of stranded assets, particularly for standalone players.
Against this backdrop, exports could become critical to absorbing the country’s expanding production capacity. The timing could also favour Indian manufacturers, with leading Chinese producers absorbing losses amid persistent oversupply, while their Indian counterparts have remained profitable. This provides an opportunity to channel capital towards upstream integration, manufacturing efficiency, and research and development (R&D).
While this has established India as a major solar manufacturing destination, upstream segments such as cells, wafers, and polysilicon remain comparatively underdeveloped. The resulting mismatch has become one of the sector’s central challenges.
The gap is evident across the manufacturing value chain. Module assembly is the easiest segment to enter, requiring relatively modest capital, shorter commissioning timelines, and limited process complexity. Cell and wafer manufacturing, by comparison, require significantly larger investments, longer build-out periods, and specialised expertise.
India’s heavy reliance on the US, which currently absorbs the bulk of its solar shipments, has also increased exposure to trade-policy risks and underscored the need to diversify export markets.
Europe offers the most structured medium-term opportunity, as its policy frameworks increasingly favour supply-chain resilience and diversified sourcing. However, securing market access alone will not be enough; Indian manufacturers will also need to remain competitive on cost and technology.
The current Production Linked Incentive (PLI) framework primarily incentivises manufacturers based on their level of integration, rewarding those producing multiple stages of the solar PV value chain, including Polysilicon, Wafer-Ingot, Cell & Module (PWCM), Wafer-Ingot, Cell & Module (WCM), or Cell and Module (CM). However, capacity additions across these components have remained uneven, with module manufacturing growing much faster than upstream segments.
IEEFA suggested that a more targeted approach could restructure incentives at the component level, providing meaningful rewards for PWCM manufacturing independently through future PLI iterations. This would allow upstream investments without requiring manufacturers to achieve full vertical integration, lowering the entry barrier for companies seeking to specialise in a particular stage of the value chain.
Such a model could distribute supply-side incentives more evenly across the manufacturing chain, encouraging a broader and more resilient domestic industry.
The narrowing gap between Indian and Chinese solar module production is creating an opportunity for Indian manufacturers, but converting that opportunity into higher export volumes will depend on how effectively they can compete with China, the world’s dominant solar supplier.
Cost and technology remain the two major competitive gaps. However, financial conditions are currently creating more avenenues for Indian manufacturers. This opportunity is arising for India as some leading Chinese module producers witnessed operating under sustained financial stress, with the top five reporting combined net losses exceeding USD 4–4.7 billion (approximately ₹37,800–44,415 crore) in 2025, driven by persistent oversupply.
Indian manufacturers, in contrast, remained profitable through 2025 and the first quarter of (Q1) 2026, supported by domestic policy protection and higher export margins. But, solar module remain more expensive modules than Chinese products, the domestic policy support and market protection is attempting to reduce this. This is despite the narrowing price gap of roughly 28.6% from its earlier 2024 level.
India and China solar Import
Further additions in cell and wafer manufacturing are expected to reduce import dependence and improve cost competitiveness over time. Together with greater upstream integration, these investments could help Indian manufacturers strengthen their position in overseas markets and make exports a more important outlet for the country’s rapidly expanding solar manufacturing capacity.
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Governor Sherrill Signs Legislation Allowing Plug-In Solar Panels for New Jersey Residents – Parsippany Focus

TRENTON — Governor Mikie Sherrill signed the Garden State Balcony Solar Act, a law designed to give New Jersey residents easier access to affordable, clean energy by removing regulatory obstacles for portable, plug-in solar panels.
The legislation, S2368/A4836, allows New Jersey residents to purchase and use plug-in solar devices to generate their own electricity and lower their utility bills.
Balcony solar devices connect to a standard 120-volt outlet, typically with a microinverter and adapter, and deliver electricity directly into a home’s existing electrical system, offsetting energy use and reducing costs. The devices and related equipment are widely available for purchase online and at local home improvement stores.
The new law exempts qualifying plug-in solar devices of up to 1,200 watts, roughly equivalent to the power used by a microwave oven, from utility interconnection and metering requirements, including certain fees, approvals and equipment mandates. It also prohibits landlords, homeowner associations and similar entities from broadly banning the devices, and bars municipalities from prohibiting their use or requiring permits.
The signing builds on Sherrill’s broader energy agenda aimed at lowering costs for New Jersey residents. During her inaugural address, Sherrill signed executive orders freezing rate hikes and accelerating new energy generation, particularly affordable, clean energy that can be deployed quickly. Since then, the administration has approved 18 new solar and battery storage projects, expanded community solar to 3,000 megawatts, signed legislation holding data centers and utility companies accountable and fast-tracked advanced grid technologies intended to cut costs. Officials estimate the combined actions will save New Jersey ratepayers $1 billion annually.
“From day one, I’ve been laser-focused on driving down energy costs through an all-of-the-above approach, and that includes putting clean, affordable solar power that you can simply plug in directly into the hands of New Jerseyans,” Sherrill said. “Balcony solar is a practical, easy-to-use tool that can help families save money while allowing more people to participate in our clean energy future. This bill cuts unnecessary red tape, expands access to affordable solar power, and proves that affordability and sustainability can go hand in hand.”
Senator John McKeon said the new law expands access to plug-in solar, particularly for renters and households without access to a private rooftop.
“With its signing today, we are greatly expanding access to plug-in solar, especially for renters and households without access to a private rooftop,” McKeon said. “By embracing innovative solutions like balcony solar, we can help households save on their utility bills and ensure the benefits of clean energy are accessible to all.”
Democratic Assemblyman Robert Karabinchak of Middlesex County said the law will make it easier for households, including renters, to access affordable solar energy without installing rooftop systems.
“This new law will make it easier for households, including renters, to access affordable solar energy without having to install rooftop solar systems,” Karabinchak said. “This is another step we are taking to help our residents save on their electricity costs.”
Doug O’Malley, director of Environment New Jersey, called the law a major step for renters and apartment dwellers who could not otherwise go solar.
“Plug-in solar is a simple concept, solar small enough to plug in but big enough to provide real environmental and bill benefits for residents who couldn’t go solar otherwise,” O’Malley said.
Jesse Sutherland, political and policy director for New Jersey League of Conservation Voters, said the act will help make the state’s clean energy transition more affordable, accessible and equitable.
Elowyn Corby, senior regional director for the Mid-Atlantic at Vote Solar Action Fund, said the measure builds toward a fairer energy system where more residents can share in the benefits of clean power.
Hannah Birnbaum, co-founder and chief of advocacy at Permit Power, said plug-in solar can save a family hundreds of dollars a year at no cost to ratepayers, adding that roughly 40 percent of New Jersey residents rent or live in apartments and have never had a way to lower their own power bill.
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New Jersey governor signs balcony solar bill to law

New Jersey Gov. Mikie Sherrill has signed the Garden State Balcony Solar Act (S2368/A4836), removing unnecessary red tape that will allow New Jerseyans to purchase and use portable, plug-in solar panels to generate their own clean energy and lower their electricity costs. “From day one, I’ve been laser-focused on driving down energy costs through an…

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UIS Opens Applications for New Professional Technical Program in Photovoltaic System Installation and Maintenance – comunicaciones.uis.edu.co

Inicio >  Comunicaciones > UIS Opens Applications for New Professional Technical Program in Photovoltaic System Installation and Maintenance
The Universidad Industrial de Santander expands its academic offering in renewable energy with a new in-person program to be offered in Bucaramanga, Barrancabermeja, and Puerto Carreño. The payment period for the application process will be open from August 31 to September 7. Meanwhile, online applications will be available from September 2 to 9.
The new Professional Technical Program in Photovoltaic System Installation and Maintenance is an educational initiative designed to address the needs of the energy sector and the challenges posed by the transition toward more sustainable energy sources.
The program has received qualified registration from the Ministry of National Education for a period of seven years, through Resolution No. 018864 of July 22, 2026. Its creation was approved by the UIS Academic Council through Agreement No. 337 of November 25, 2025.
Those interested may begin the application process for this new program, which will be offered in person in three regions of the country:
The program lasts four semesters and includes a curriculum comprising 57 academic credits. For each academic period, the projected admission capacity is 40 students in Bucaramanga, 40 in Barrancabermeja, and 30 in Puerto Carreño.
With the launch of this program, UIS strengthens its academic offering in a strategic field for the country’s energy development and expands its presence in the regions by providing an educational alternative that responds to local needs.
The training of professional technicians in the installation and maintenance of photovoltaic systems contributes to building capabilities for harnessing solar energy and opens new opportunities for education and employment in a sector moving toward more sustainable energy models.
This new achievement is also the result of the coordinated efforts of the academic communities of the School of Electrical, Electronic and Telecommunications Engineering and the Faculty of Physical-Mechanical Engineering, whose knowledge and commitment made the creation and approval of the program possible.
The publication of admission results will take place on September 10, 2026.
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Perovskite solar cells add 50 miles of range to Hongqi EHS7 daily – Notebookcheck

China’s oldest car brand has developed a solar energy-generating sunroof for its FAW Hongqi EHS7, whose technology can add up to 50 miles of range generated every day from sun rays alone when applied all across the electric SUV. This would cover the daily commute of 85% of people when integrated into the vehicle’s other body panels like the hood.
The solar panel-equipped sunroof of the EHS7 currently serves as a proof-of-concept prototype, solving certain encapsulation and curvature challenges. Hongqi eschewed the brittle silicon that the vast majority of photovoltaic panels currently use and developed the panoramic sunroof with perovskite elements instead.
The calcium titanium oxide mineral is flexible, allowing the storied automaker to integrate it into the curved panoramic sunroof of the electric SUV, and it can also come in various colors depending on the whims of the design team.
Mailuo Energy supplied FAW with 300×300 mm² flexible perovskite modules early on, later scaling to square-meter class ones through phases of performance testing, scheme validation, and vehicle integration. Mailuo’s modules support customization for semi-transparency, color, gradient effects, irregular shapes, voltage tuning, and high-curvature surfaces, all the prerequisites for an EV panoramic roof and hood installation.
The perovskite PV panels offer high sunlight conversion efficiency, too, with the panoramic roof alone generating 300W of output. This can return 400 kWh of energy to the battery annually, so the photovoltaic SUV roof would be enough for running the A/C or an in-vehicle fridge while the car is in sentry mode, for instance. Hongqi plans to integrate the perovskite solar cells into the rest of the vehicle’s surface, calculating that such a system will generate 10 kWh of electricity when conditions allow, and that will be enough to drive 80 km (50 miles) per day just on solar power.
Needless to say, the usual "sufficient sunlight" caveat still stands for the solar-powered range of the EHS7, yet Hongqi notes that the perovskite cells of the sunroof are comparatively low cost, so they wouldn’t add much to the price of the original SUV. The eventual higher pricing of an electric vehicle whose body surface is covered with perovskite solar panels would thus be offset from the free electric range that it gets every day, provided that there is enough sunshine to go around.
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Ameren Plans 15-Mile, 138 kV Transmission Line to Enhance Power Reliability and Grid Resilience in Southern Illinois – SolarQuarter

Ameren Plans 15-Mile, 138 kV Transmission Line to Enhance Power Reliability and Grid Resilience in Southern Illinois  SolarQuarter
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FAW develops EV roof with perovskite solar cells for charging in sunlight – China Daily

Chinese State-owned carmaker FAW Group has developed a full-size vehicle roof prototype fitted with perovskite solar cells that could allow electric cars to generate power while sitting in the sun.
FAW said it was the first time perovskite photovoltaic technology had been integrated into double-curved automotive safety glass.
Under strong sunlight, the prototype can produce nearly 300 watts of power, with an estimated annual generation of about 400 kilowatt-hours, according to the company. The electricity could supply low-voltage systems, including air conditioning while parked, an in-car refrigerator, and vehicle security monitoring, reducing power drawn from the main battery.
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Sweden could face 150,000 metric tons of end-of-life panels annually – pv magazine India


Sweden’s annual volume of decommissioned solar panels could grow from 17 MT in 2021 to as much as 150,000 MT by around 2060, according to a new circular-economy roadmap published by Axfoundation, KTH Royal Institute of Technology, and industry partners including Svea Solar, El-Kretsen, Stena Recycling, and REMONDIS.
The roadmap, developed through the CircSolar project and financed in part by Vinnova, Sweden’s innovation agency, draws on scenario modeling by RISE Research Institutes of Sweden. Depending on the pace of solar deployment and how much of the fleet is repowered – replaced with newer panels before reaching the end of its technical life – RISE estimates annual decommissioning volumes could range from 40,000 MT in a lower-deployment scenario to 150,000 MT in a rapid-expansion scenario by 2060, with larger volumes beginning to emerge from around 2035.
“This roadmap is not the end point, but a starting point for collective action,” said Johanna Olofsson Behrman, project manager for future materials at Axfoundation. “By bringing together actors from across the value chain, CircSolar has shown that circular solutions for solar panels require system innovation, shared responsibility and practical collaboration. The next step is to turn these recommendations into action.”
A typical panel weighs about 20 kg and consists of roughly 67% glass, 16% aluminum, 11% plastic, 4% silicon, and small amounts of metals including silver and copper, according to the roadmap. RISE estimates that dedicated PV recycling infrastructure would need a recurring annual inflow of around 10,000 metric tons to become economically viable – a volume Sweden has not yet approached.
The roadmap warns that panels currently removed from service are often handled together with general electronic waste, which limits opportunities for reuse and specialized recycling. Research led by KTH found that many panels taken out of service are still functional or repairable rather than genuinely at the end of their life.
“After years of exploring what a circular solar power system could look like in practice, we see this roadmap as an important step toward making the transition more tangible,” said Beatriz Pérez Horno, a KTH researcher and one of the roadmap’s authors. “It highlights the opportunities and barriers across the solar value chain and, importantly, helps identify where knowledge, collaboration and action are still needed to turn ambitions into circular and resource-efficient solar systems.”
Under the European Union’s WEEE Directive, member states must collect either 65% of the average weight of electrical equipment placed on their market over the preceding three years, or 85% of the WEEE generated domestically. Separately collected PV panels are subject to specific treatment targets of 85% recovery and 80% preparation for reuse and recycling by weight. Only six of 12 European countries reporting PV-specific treatment data met the 85% recovery target in 2021, according to the European Environment Agency.
The roadmap sets out five priority areas: circular design and responsible production, safer handling and transport of panels, extending the usable life of installed systems, higher-value material recovery, and stronger governance and data-sharing across the value chain. Proposed actions include establishing a dedicated PV waste category under the WEEE Directive, developing standardized testing and certification for second-life panels, and creating a national database tracking installed, decommissioned, and planned solar capacity.
“As the industry’s leading actor, we initiated this roadmap because we see both a responsibility and an opportunity to help shape a more circular future,” said Mattias Ringqvist, CEO of Svea Solar. “Extending the lifetime of solar panels and ensuring they are handled responsibly at end of life must become a natural part of how this industry grows.”
Similar challenges are expected elsewhere in Europe as larger volumes of PV modules reach end of life. The European Commission’s Joint Research Centre estimates the EU could accumulate between 21 million MT and 35 million MT of cumulative photovoltaic waste by 2050, with global volumes potentially reaching 60 million MT to 80 million MT over the same period.
Some recyclers are already working to improve recovery economics. A pilot process using electrohydraulic shockwave fragmentation has recovered more than 99.5% of a panel’s original weight in testing, including pathways for silicon and silver recovery, while separate EU-funded projects have developed dedicated recycling lines for silicon-based modules.
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US DOE $12M R&D Fund for Space Solar Panels: Applications Open Until Oct 8 – News and Statistics – IndexBox

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The US Department of Energy (DOE) has introduced a $12 million research and development fund aimed at reducing costs and expanding domestic manufacturing of solar panels designed for space applications. The initiative, managed by the DOE’s Integrated Energy Systems Office, is open to university and industry research laboratories working on advanced space-based photovoltaic projects, including characterization, stress testing, and near-commercial pilot-scale solutions.
The fund is divided into two areas: one focusing on next-generation cell innovation, covering manufacturing methods and improvements in solar cell performance and durability, and another on rapid production and demonstration, targeting scalable manufacturing processes for module prototypes in space or near-space environments. Individual applicants can receive up to $1.5 million for projects in the first area and up to $2 million for those in the second.
Applications are open immediately and close on 8 October. The DOE, in collaboration with TECHWERX, will host a webinar on 15 September to provide more details. Winning applicants are expected to be selected in December, with negotiations for awards concluding between January and February next year.
While federal support for an early-stage sector like space-based solar power may seem unexpected from the current administration, the government has emphasized energy security as a key priority. Assistant Secretary of Energy Audrey Robertson stated that the funding aims to bolster national security and establish American leadership in next-generation space-based photovoltaics, enhancing economic competitiveness.
A report from Clean Tomorrow, published last year, indicated that the DOE would need to invest $25 billion across energy sectors to achieve greater energy security. The $12 million fund is a small part of this broader effort.
Space-based solar power has also drawn private sector interest. In April, Meta signed an agreement with startup Overview Energy to gain early access to a 1GW fleet of space-based solar panels planned for launch in 2030.
The topic will be discussed at the PV CellTech USA conference, hosted by Solar Media in San Francisco on 13-14 October. Timothy Siegler, technology manager at the IESO, will present on how space-based solar power is driving photovoltaic innovation.
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Australia's replaced aging solar panels could hit 99,000 tons a year, prompting calls for bottle-like $10 upfront recycling fee – yahoo.com

Australia’s replaced aging solar panels could hit 99,000 tons a year, prompting calls for bottle-like $10 upfront recycling fee  yahoo.com
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Journey Ahead: JA Roadshow 2026 to spotlight integrated energy solutions – pv magazine Global

Grid instability, growing electrification, and rising demand for energy resilience are reshaping Europe’s energy landscape. As developers, installers, EPCs, and asset owners seek solutions that go beyond power generation alone, integrated approaches combining solar and energy storage are becoming increasingly important.
Against this backdrop, JA will launch Journey Ahead: JA Roadshow 2026, an initiative designed to bring the company’s latest technology developments directly to customers and industry stakeholders across Europe. The roadshow will serve as a mobile showcase of JA’s expanding energy ecosystem, giving visitors direct access to JA experts and the company’s latest innovations.
A key focus of the tour will be battery energy storage systems (BESS). As energy markets evolve and grid constraints become more visible, storage is emerging as a critical technology for improving flexibility, increasing self-consumption, managing peak demand, and strengthening energy security. Product demonstrations and technical discussions will focus on how storage can support more resilient and reliable energy systems.
Among the solutions on display will be JAPlanet 2.0, JAPlanet Fusion, and JAGalaxy, showcasing JA’s growing presence across C&I and utility-scale storage. Together, these solutions reflect the company’s broader vision of delivering integrated energy systems that combine generation, storage, and intelligent energy management.
The roadshow will also feature a selection of JA’s latest PV technologies, highlighting the company’s continued focus on performance, reliability, and application-driven innovation.
Visitors will have the opportunity to explore products from JA’s latest-generation TOPCon platform, DeepBlue 5.0, including JAM48D50/LR and JAM66D50/GB. The exhibition will also present the DeepBlue 4.0 Pro TOPCon portfolio, represented by JAM54D40/LR and JAM66D45/LB, featuring JA’s anti-glare solutions with both microstructured glass and acid-etched glass variants. Completing the lineup is the new HyperGen module JAT54S4F/GR, JA’s new back-contact technology with world-record certified cell conversion efficiency of 28.2%.
The event reflects JA’s continued evolution from a leading PV manufacturer into an integrated energy solutions provider. By combining high-efficiency modules, energy storage technologies, and application-focused innovation, JA is expanding its offering to address changing energy needs across Europe.
The roadshow will kick off in Poland on 2 September before continuing through Hungary, Romania, Bulgaria, Croatia, Slovenia, Italy, Austria, Germany, Spain, Belgium, and the Netherlands. As the itinerary develops, the latest locations, schedules, and updates will be published on the dedicated roadshow microsite. The platform will serve as a central hub for information throughout the tour, ensuring attendees can stay informed as new stops and activities are announced.
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Income-Qualified Homeowners Among Those Eligible to Access Remaining State Solar and Battery Funds – Carmichael Times

Income-Qualified Homeowners Among Those Eligible to Access Remaining State Solar and Battery Funds  Carmichael Times
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Solar O&M Market Reaches 348 GW, Top 15 Vendors Control 57%: Report – Saur Energy

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Solar O&M Market Reaches 348 GW, Top 15 Vendors Control 57%: Report Photograph: (AI)
The global solar photovoltaic (PV) operations and maintenance (O&M) market reached 348 GW of assessed capacity at the end of 2025, adding 61 GW during the year, as leading service providers continued to consolidate their position in the market amid divergent regional trends, according to Wood Mackenzie.
The top 15 O&M vendors collectively managed 200 GW at the end of 2025, accounting for 57% of the assessed global market. The companies added 41 GW to their portfolios during the year, highlighting the increasing concentration of the global O&M sector.
The findings are part of Wood Mackenzie’s Global Solar PV O&M Service Provider Dynamics 2026 report, which tracks fleet sizes, cost trends and service strategies across more than 130 O&M vendors operating in the Americas, Asia Pacific excluding China (APeC), and Europe, the Middle East and Africa (EMEA).
“The global O&M market is consolidating quickly around a core group of scaled providers, but the dynamics look very different depending on where you are,” said Khalif Ahmad Zikri, research analyst at Wood Mackenzie.
“In North America, a mature and competitive market is driving down costs while independent service providers strengthen their dominance. In the Middle East and Africa, we are seeing a near-doubling of volumes and a wave of new entrants chasing an underpenetrated opportunity. These are fundamentally different markets at very different levels of development,” he added.
Novasource Power Services retained its position as the world’s largest solar PV O&M provider, with 38.4 GW under management at the end of 2025. RES Energy Global Services, SOLV Energy, Solarig Energy Services and Recurrent Energy rounded out the top five providers. Several leading vendors expanded their portfolios across multiple regions as they sought to strengthen their market positions. BayWa r.e. Services and Origis Energy Services entered the global top 15, adding 2.6 GW and 1.8 GW, respectively, to their O&M portfolios.
The North American market continued to see strong competitive pressure, with full-wrap O&M contract costs declining 18% year-on-year. The decline reflects the maturity of the regional market and increasing competition among service providers. Independent O&M providers continued to strengthen their presence in North America, contrasting with the rapid expansion and entry of new players seen in less-developed markets.
O&M volumes in the Middle East and Africa nearly doubled in 2025, highlighting the region’s growing importance as solar installations expand and asset owners increasingly seek professionalized operations and maintenance services. The sharp increase in volumes has also attracted new entrants seeking to capitalize on what Wood Mackenzie describes as an underpenetrated O&M opportunity.
Engie and Sterling & Wilson recorded some of the strongest growth among individual vendors in 2025. Engie more than doubled its O&M portfolio, moving up six places to eighth in the global rankings. The growth was driven primarily by a 172% expansion in its Americas portfolio.
Sterling & Wilson recorded 53% year-on-year growth, taking its global O&M portfolio to 13.5 GW and moving it into sixth place globally. Its position was supported by a strong presence in the APeC region, where it leads the market with 12.2 GW under management.
Among second-tier vendors, megaom, FRV’s standalone O&M entity, recorded the fastest growth. Its portfolio expanded 243% to 3.8 GW globally, taking the company into the global top 30 for the first time. The overall growth of the solar PV O&M market, combined with increasing concentration among the largest providers, points to a sector undergoing rapid consolidation. At the same time, regional differences in market maturity, pricing and penetration are creating distinct growth opportunities for both established players and new entrants.
I have also *added the North America cost decline and Middle East & Africa growth as dedicated sections, because those are important news points from the original release and deserve more prominence in a news report rather than being buried in the opening bullets.
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Charts show how far rooftop solar and home batteries can take us – and why we still need the grid – pv magazine Australia

What would happen if these trends continue? It’s tempting to picture a future where Australian homes and cities could power themselves using these two decentralised technologies.
But while rooftop solar and batteries can take us a long way, they aren’t enough to take most households off-grid – let alone run entire cities.
The real question is how much household power demand can be met by solar and batteries, at what times of day, and under what conditions. These five charts show what’s possible – and what’s not.
As of April 30, the National Energy Market had close to 26 gigawatts installed capacity of small-scale rooftop solar, which includes small-scale rooftop PV installed on homes, businesses and other eligible premises.
Solar panels never produce at their full capacity. Clouds cut output, and there’s no sun at night. As a result, that 26GW of panels produced 4GW of power on average from January to March this year.
That’s still significant. It’s equivalent to 16% of demand, and almost four times higher than the same quarter eight years ago. Solar-rich South Australia had 28% of underlying demand met by rooftop solar. During sunny, low-demand periods, rooftop solar can meet around 60% of National Energy Market demand.
Rooftop solar capacity has been increasing rapidly since 2017. But it could go much higher still. Australia’s energy market operator (AEMO) projects small-scale solar capacity (rooftop and other small systems) could almost triple by 2050 to around 87GW.
If all suitable household rooftops were fully used for solar, capacity could reach around 61GW. But homes are only part of Australia’s rooftop solar potential. Once commercial, industrial and other buildings are included, the technical potential is much larger – around 179GW.
This also helps explain why AEMO forecasts for small-scale solar capacity eventually rises above 61GW – its forecast includes rooftop and other small-scale systems on businesses and other premises as well as homes. When large-scale solar farms are also counted, Australia is likely to pass 61GW of total solar capacity within a decade.

This progress is significant. But it also changes the problem that the grid must solve.
Before the rise of wind, solar and batteries, coal plants supplied much of Australia’s electricity. These work best when running steadily, as they can increase or decrease output relatively slowly.
Solar changes this equation.
Power from rooftop solar first meets demand within homes and businesses. At times, solar can exceed local demand, requiring excess power to be exported to the grid, stored or curtailed. As the sun sets, solar output falls rapidly. Demand for grid-supplied electricity then rises sharply, often peaking in late afternoon or evening.
This pattern of low daytime demand and high evening demand is known as the “duck curve”. It poses challenges for grid operators, who have to manage very low grid demand during the day and then rapidly bring on other generation or storage as solar output falls and evening demand rises.
The problem can be partly solved by coordinating home batteries and other types of energy storage, as they can store excess solar and release it at peak times.
While rooftop solar and home batteries have clear promise, they’re not a simple substitute for the grid, especially during evenings, heatwaves or prolonged cloudy periods.
Heavy industry, data centres and other big power users require substantial and often continuous supplies of electricity which cannot be wholly met by small-scale energy production.
Home batteries are already reducing how much power households buy from the grid.
But their usable stored energy remains limited relative to the amount of rooftop solar generation available. They’re good at reducing how much expensive power households buy at peak times, but not so good at providing extended backup over an extended cloudy period or during evenings amid an intense heatwave.
What we’re likely to see is rooftop solar and household batteries operating alongside large-scale solar and wind farms to supply much of Australia’s electricity as conditions allow.
We will still need local networks to supply electricity when solar output is low, and carry surplus power in the opposite direction. New transmission lines are needed to better connect large scale renewable areas with cities and heavy industry.
Long-duration energy storage, such as pumped hydro and grid-scale batteries, will be necessary to keep Australia running through periods of low wind and sunlight. A few gas plants will have to be kept as backup.
As the renewable transition progresses, we will need to judge progress not by how many solar arrays and home batteries have been installed, but by how well we can make use of them alongside larger-scale renewables and storage.
We should not aim for a future where household after household quits the grid. Far better to build a resilient, integrated system where homes produce and store more electricity, power grids deal with two-way flows of power intelligently and large-scale renewables and storage cover the periods rooftop solar and batteries can’t respond to.
Author: Magnus Söderberg, Professor and Director, Centre for Applied Energy Economics and Policy Research, Griffith University
This article was initially published in The Conversation and is republished here under a Creative Commons Licence.
The views and opinions expressed in this article are the author’s own, and do not necessarily reflect those held by pv magazine.
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: [email protected].
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GoSun Unveils Solar Electric Tractor, Expanding Off-Grid Innovation to Farmers – Morning Ag Clips

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CINCINNATI, Ohio — GoSun, a pioneer in solar-powered appliances and portable clean energy solutions, today announced the expansion of its off-grid lineup with the launch of its first-ever All-Electric Solar Tractor. This new electric vehicle is engineered to replace traditional diesel-fuel tractors, the new vehicle combines high-torque electric performance with GoSun’s signature optional integrated solar charging technology, offering an eco-friendly and cost-effective solution for modern agriculture, homesteading, and property maintenance.
Designed to handle tough field conditions without carbon emissions or noisy combustion engines, the GoSun All Electric Tractor delivers whisper-quiet operation and immediate, low-end electric torque. With the optional high-efficiency fold-out solar panels, the tractor continuously captures energy from the sun while working in the field or parked outdoors, significantly extending runtimes and reducing reliance on grid charging.
The tractor is manufactured by Moonrider in India. GoSun and Moonrider have signed a cooperation and marketing agreement to distribute the tractor in North America.
With a retail price of $19,995 this electric tractor is competitively priced with diesel tractors.
“At GoSun, our vision has always been to build solutions that allow people to live, work, and thrive off the grid using the power of the sun,” said Patrick Sherwin, Founder and CEO of GoSun. “Small-scale farming and property management have relied on noisy, costly diesel utility vehicles for far too long. With our new All-Electric Tractor, we are empowering farmers and land managers to literally work on sunshine—reducing operational costs while protecting the soil and air. Electric tractors are a key part of the future of farming “
See the video of the GoSun Moonrider here Electric Tractor: GoSun Moonrider 27

The GoSun All-Electric Solar Tractor will be available for early 2027 with reservations directly through GoSun’s website. For detailed specifications, and direct early-bird pricing, and reservations go to GoSun Moonrider.
About GoSun
Founded in 2016, GoSun is a Cincinnati-based solar appliance company dedicated to delivering clean energy, independence, and resilience to everyday life. Known for its breakthrough consumer solar technology—including solar cookers, portable refrigerators, water purification systems, and solar EV charging solutions—GoSun creates products that make sustainable living accessible anywhere. For more information, visit www.gosun.co
About Moonrider
Moonrider is an India-based manufacturing company that has developed electric tractors that can compete directly with diesel-powered tractors.
—GoSun
MILWAUKEE, Wis. — Several notable drivers poised to impact the future of agriculture are taking shape, and American farmers are already feeling the heat. Their future success depends on their ability to meet demands for increased sustainability while facing a severe labor shortage, rising input prices and increasingly unpredictable weather events. Producing more with less will […]
ONLINE (AP) — At Nature Fresh Farms in Leamington, Ont., there’s something new amid the rows of tomatoes, cucumbers, peppers and strawberries. Using thousands of sensors in every greenhouse, artificial intelligence technology is helping the farm optimize aspects like lighting, irrigation and harvest timing. “We wanted to use technology to help us grow more, have […]
MILWAUKEE, Wis. — The Association of Equipment Manufacturers (AEM) and the European Agricultural Machinery Association (CEMA) have signed a Memorandum of Understanding (MoU) to enhance advocacy efforts for the agricultural equipment industry. The agreement aims to create a positive legislative and regulatory environment across the Atlantic and globally, ensuring alignment on key issues impacting manufacturers […]
EAST LANSING, Mich. (AP) — In the soft dirt of an indoor horseback riding ring last month, a group of farmers got ready to test drive a new piece of equipment: an electric tractor. As they took turns climbing in — some surprised by its quick acceleration — they gave real-time feedback to the Michigan […]
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A consortium led by Canadian renewable energy developer JCM Power has – Shanghai Metals Market

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Part 2: Mapping the gaps in the US solar supply chain – from polysilicon to modules – PV Tech

If Part 1 of this series established that the United States is not short of PV manufacturing capacity announcements, the second article asks a narrower and more useful question: where in the chain does that capacity exist, and where are the gaps? The answer is a domestic supply chain that gets stronger the closer it sits to the end customer and less established the further upstream you look. 
Module assembly is, by a wide margin, the most mature segment of the US domestic supply chain. PV Tech Research estimates US module capacity at 77.3GW (including thin film) and 61GW on a crystalline-only basis, with production reaching 51.5GW and 37.5GW, respectively. Current capacity is sufficient to meet total domestic module demand. For developers sourcing modules today, the “Made in USA” question is largely resolved. The critical question now is the supply chain feeding those modules. 

Cell capacity tells a different story. Including First Solar’s thin-film lines, US cell capacity stands at 26.5GW against 19GW of production; on a crystalline-only basis, capacity drops to just 10GW with production at 5.2GW. Set against a module capacity of 61-77 GW, the mismatch is stark: even at full utilisation, domestic cell production covers only one-third to just over 40% of what domestic module lines can assemble. In practice, the module industry’s primary input, the cell itself, remains substantially import-dependent and will stay that way until cell capacity under construction (see Day 1’s 55.9GW pipeline figure) converts into shipped product. 
The wafer stage reveals the greatest imbalance. US wafer capacity is just 5GW, against production of 3.2GW, which currently covers less than 63% of the crystalline-only cell segment it feeds, and utilises only 20% of the polysilicon capacity sitting above it. More importantly, it will be insufficient to support the more than 40GW of additional cell capacity coming online in the next 18 months. The practical consequence is one of the more counterintuitive facts in the domestic supply chain today: with wafer capacity this constrained, a US-produced polysilicon ingot often must be shipped abroad to be sliced into wafers, then returned to the country for processing into a cell. Domestic wafering capacity, not domestic polysilicon or cell capacity, is the tightest bottleneck in the chain, and it is the stage that has attracted the least investment relative to the gap it needs to close. 
Polysilicon sits at the top of the chain and has drawn some of the most significant capital commitments in the sector, with 36GW of capacity against 15.5GW of PV-allocated production. As covered in Day 1 of the series, part of that gap reflects capacity shared with semiconductor-grade output rather than genuine idle capacity, but even accounting for that, the shortfall relative to downstream demand remains substantial. Polysilicon is the one segment where the investment case is clearly being made; the question is whether it converts into PV-allocated tonnage fast enough to fill the gap. 
For manufacturers, the picture is one of uneven opportunity. Module producers are operating in a market that is close to domestic saturation, while cell and, especially, wafer producers are sitting on some of the least-contested capacity gaps in the industry. For equipment suppliers, the wafer and cell stages represent the clearest near-term demand signal, since this is where the largest build-out is still needed to match existing downstream capacity.  
For developers, the import dependency at the cell and wafer stages means full supply-chain traceability, and FEOC compliance in particular, will remain challenging to guarantee for several more years, regardless of how domestic the final module assembly is. For investors, the wafer stage in particular looks underpriced relative to its strategic importance: it is the smallest segment in absolute capacity terms, the most exposed to offshore round-tripping. 
The investment pattern raises a question: if domesticating the entire value chain is the policy priority, why does most of the capital under construction still sit at the cell and module stages rather than upstream, where the gaps identified above are largest? Should the policy go further to incentivise build-out specifically targeted at these gaps?  
Section 232’s polysilicon investigation and the broader push toward domestic content suggest intent, but the signal is muddied by the accelerated phasing out of the 45Y production tax credit and the 48E investment tax credit, both of which had underpinned deployment-side economics for renewables more broadly. Removing that in December 2027 raises legitimate questions about how committed policymakers are to the deployment side of the equation, even as they tighten the screws on component sourcing. 
What has survived, and what matters most for the manufacturers this series is focused on, is the 45X manufacturing production credit, which remains intact. Section 232 reinforces it directly through the Minimum Import Price, which will function as a price floor across solar components and insulate domestic producers from the kind of import-driven price collapse that has undercut manufacturing investment in the past. Taken together, this is not a coherent industrial strategy so much as a set of overlapping instruments that happen to favour manufacturers even as they leave deployment economics more uncertain. But for the manufacturers themselves, particularly at the cell and wafer stages, where competition has been most directly curtailed, the opportunity to scale into a protected, still-underbuilt market is real. 
The next article in this series will map the capital commitments behind this build-out: which segments are attracting investment, where the money is coming from and whether the announced capacity additions are sufficient to close the gaps identified here. The opportunity is real, but execution will determine whether domestic manufacturing scales fast enough to meet both policy ambitions and market demand. 
Many of the subjects explored in this article will be under further discussion at our PV CellTech USA conference in San Francisco on 13-14 October. For details and booking, click here.

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SolarWindow Releases Product Specs: ElectroFlex® Bendable Solar – Yahoo Finance Singapore

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ElectroFlex® Ultra-Thin Flexible Solar Measures 0.85mm with 24.4% PCE Cells, Built for OEM Production Line Integration
SCOTTSDALE, Ariz., Sept. 01, 2026 (GLOBE NEWSWIRE) — SolarWindow Technologies, Inc. (Symbol: WNDW), today released specifications for the Company’s ElectroFlex® product — ultra-thin, high-power, ‘peel-and-stick’ flexible solar, commercially launched last week.
CEO Amit Singh Demonstrates
ElectroFlex® Ultra-Thin Flexible Solar
For OEM manufacturers, ElectroFlex® transforms passive surface areas that are otherwise dead weight into active sources of onboard power, extending range and reducing generator, shore-power, and grid dependence.
Thinner than a dime, ElectroFlex® measures 0.85 millimeters, and is available in sheets up to 22 square feet, as large as a standard pool table. ElectroFlex® is up to 40 times thinner and generates up to 7.5 times more power than a traditional solar panel (watts per pound). Standard ElectroFlex® sheets weigh as little as 3.2 ounces per square foot.
ElectroFlex® is built on high-efficiency interdigitated back-contact monocrystalline silicon cells rated at up to 24.4% power conversion efficiency. Because the cells carry no front-side busbars, ElectroFlex® is able to wrap around the contour of a surface without the micro-cracking that fractures conventional cell interconnects. ElectroFlex® generates electricity on curved and flat surfaces traditional solar could never reach.
ElectroFlex® is configured to the customer’s exact product specifications, including dimensions, geometry, mounting, power, and color requirements. There are no standard panels sizes or configurations.
Seamless Flush-Mount PV. Built for OEM Integration
ElectroFlex® offers Tier-1 OEM partners (original equipment manufacturers which build vehicles, buildings, and devices) a seamless flush-mount solar system with no racks to engineer, no structures to reinforce, and no penetrations to seal.
ElectroFlex® is ultra-thin, light, and flexible, and bonds directly to the product on the manufacturer’s own production line in one single step. Conversely, traditional solar panel mounting requires multiple steps, and inefficient, costly, with staggered installation.
Unlike ElectroFlex®, traditional solar requires aluminum frames, mounting racks, roof penetrations, structural reinforcements or supports to carry the load, freight shipping for heavy palletized goods, and heavy lifting equipment. ElectroFlex® eliminates these categories of cost for OEMs and their customers.
Integrated Into the Production Line, Not Bolted on Afterward
ElectroFlex® is applied by the manufacturer on its own production line as part of assembly. There is no separate installation event, no crew scheduled after the product is built, and no second handling of a finished unit.
For qualified OEMs, SolarWindow will engineer, design, and model the energy system for each product application. SolarWindow supplies all wiring, harnessing, electrical systems balancing, and power delivery. SolarWindow then develops the application process for that specific product, adapts it to the manufacturer’s existing line, and trains the manufacturer’s own personnel to apply ElectroFlex® in production.
Availability
ElectroFlex® is initially available exclusively to America’s Tier-1 OEM manufacturers, expanding to select North American and Asian markets in the upcoming quarters. ElectroFlex® is targeting transportation, marine, aerospace, architectural, agricultural, infrastructure and utilities, and specialty vehicle markets.
Tier-1 OEM manufacturers evaluating ElectroFlex® for their own applications can request specifications, samples, and integration support via the Company’s website at http://www.solarwindow.com or by calling +1 (800) 213-0689.
A New SolarWindow
Alongside the ElectroFlex® launch, SolarWindow unveiled a completely redesigned website at http://www.solarwindow.com. The new site reflects the Company’s evolution from a single-technology developer into an energy technology platform with a portfolio of products, and gives a clear view of each product line, its stage of development, and its market applications.
Interested parties are encouraged to visit http://www.solarwindow.com to explore ElectroFlex® and the SolarWindow product portfolio.
ElectroFlex® Product Specifications
Electrical
Cell technology
Interdigitated back-contact (IBC) monocrystalline silicon
Cell architecture
No front-side busbars. All contacts on the rear of the cell
Cell power conversion efficiency
Up to 24.4%
Nominal power density
Approximately 200 to 220 watts per square meter (approximately 18.5 to 20.5 watts per square foot) at standard test conditions
Electrical balance of system
Wiring, harnessing, electrical systems balancing, and power delivery engineered and supplied by SolarWindow
Physical
Total stack thickness
0.4mm – 1.2mm
Layer construction
Composite laminate embedding the photovoltaic cell matrix
Weight
0.2 – 0.4 lbs. per square foot
Sheet format
Configured to the customer’s exact dimensions, geometry, mounting, and power requirements. No standard panel sizes
Front surface
No glass. No aluminum frame
Installation and Integration
Mounting method
Bonds directly to the surface: factory-applied adhesive with protective liner, pressure-sensitive adhesive tape, one-component structural silicone, two-component polyurethane adhesive, others
Installed profile
Lies virtually flush to the surface
Mounting hardware
None. No racks, rails, frames, ballast, or roof penetrations
Structural requirement
No structural reinforcement or engineering load assessment
Surface compatibility
Flat, curved, contoured, and irregular surfaces.
Application method
Applied by the manufacturer on its own production line as part of assembly. No separate installation event
System engineering
Each application engineered, designed, and modeled by SolarWindow
Process integration
Application process developed by SolarWindow and adapted to the manufacturer’s existing production line
Training and qualification
SolarWindow trains manufacturer personnel and qualifies the application process on the customer’s line
Environmental
Operating temperature range
-40°C to +85°C
Outdoor exposure
Engineered for sustained outdoor exposure including rain, hail, snow, humidity, UV light, and salt spray
ElectroFlex® Compared to Conventional Rigid Solar
ElectroFlex®
Conventional rigid silicon panel
Thickness
0.85 mm
Approximately 40 mm including frame
Weight
0.2 – 0.4 lbs per square foot
2.4 to 2.7 lb per square foot
Construction
Flexible adhesive-backed sheet
Rigid glass module in an aluminum frame
Mounting
Bonds directly to the surface
Racks, rails, ballast, or roof penetrations
Structural work
None
Load assessment and reinforcement commonly required
Surfaces served
Flat, curved, contoured, irregular
Planar only
Cell efficiency
Up to 24.4%
Comparable range
Thickness and weight comparisons are stated against a conventional 40 mm framed solar panel
SolarWindow Technologies, Inc.
SolarWindow Technologies, Inc. (Symbol: WNDW; http://www.solarwindow.com) is an energy technology company developing and commercializing solar products designed to generate electricity on the surfaces of everyday products and buildings, including surfaces that conventional solar panels cannot serve.
The Company’s portfolio currently spans two product lines:
ElectroFlex® is an ultra-thin, ultra-lightweight, flexible solar product available today for manufacturers, bonding directly to flat and curved surfaces without racks, frames, or mounting hardware, across transportation, marine, aerospace, agricultural, infrastructure, and specialty vehicle applications.
LiquidElectricity® is a proprietary transparent coating that generates electricity when applied to glass and plastics, producing power under natural, artificial, low, shaded, and reflected light conditions.
The SolarWindow Promise: Engineer, design, and ultimately manufacture and deliver products which reward customers with affordable clean energy for a healthier, safer, and more sustainable planet. SolarWindow is ClearlyElectric®.
SolarWindow Contacts
For additional information on SolarWindow, please call Amit Singh at 1 (800) 213-0689, or visit http://www.solarwindow.com, follow us on X @solartechwindow or on Facebook.
To receive future press releases via email, please visit: https://solarwindow.com/news/.
To view the full HTML text of this release, please visit: https://www.solarwindow.com/2026/09/solarwindow_releases_product_specs_electroflex_bendable_solar/.
Social Media Disclaimer
SolarWindow stockholders, investors and others should note that we announce material information to the public about the Company through a variety of means, including our website (https://www.solarwindow.com/investors), through press releases, SEC filings, public conference calls, via our corporate X account (@solartechwindow), Facebook page (https://www.facebook.com/SolarWindowTechnologies) and LinkedIn page (https://www.linkedin.com/company/solar-window-technology/) in order to achieve broad, non-exclusionary distribution of information to the public and to comply with our disclosure obligations under Regulation FD. We encourage our investors and others to monitor and review the information we make public in these locations as such information could be deemed to be material information. Please note that this list may be updated from time to time.
Forward Looking Statements
This press release contains information about SolarWindow that may constitute “forward-looking statements” as that term is defined under the Private Securities Litigation Reform Act of 1995 and other securities laws. These forward-looking statements are based upon current expectations or beliefs, as well as a number of assumptions about future events. We intend the forward-looking statements to be covered by the safe harbor provisions for forward-looking statements in those laws as applicable. Although SolarWindow believes that the expectations reflected in such forward-looking statements and the assumptions upon which they are based are reasonable as at the time made, no assurance can be given that such expectations and assumptions will prove to have been correct.
Generally, we have identified such forward-looking statements by using such words as “aim,” “anticipate,” “believe,” “could,” “estimate,” “expect,” “forecast,” “future,” “goal,” “intend,” “may,” “plan,” “project,” “should,” “target,” “will,” and similar expressions or by using future dates in connection with any discussion of, among other things, statements expressing general views about the future development, manufacture, production, marketing, or sale of SolarWindow products, or the execution of manufacturing, licensing, or partnership agreements, that we expect or anticipate will occur in the future, as well as anticipated cost savings, potential capital and operational improvements, and changes in the global economic environment. However, the absence of these words or similar expressions does not mean that a statement is not forward-looking. Forward-looking statements include all statements that are not historical facts, but instead represent only our beliefs regarding future goals, plans and expectations about our prospects for the future and other events, many of which, by their nature, are inherently uncertain and outside of our control. It is possible that actual results may differ, possibly materially, from the anticipated results indicated in these forward-looking statements.
Caution should be taken not to place undue reliance on any such forward-looking statements because such statements speak only as of the date when made and are subject to numerous factors and uncertainties, including but not limited to adverse economic conditions, intense competition, lack of meaningful research results, entry of new competitors and products, adverse federal, state and local government regulation, inadequate capital, unexpected costs and operating deficits, increases in general and administrative costs, termination of contracts or agreements, technological obsolescence, technical problems relating to manufacturing methodologies, price increases for supplies and components, litigation and other proceedings, adverse publicity and news coverage, inability to carry out research, development and commercialization plans, loss or retirement of key executives and research scientists, failure to obtain required regulatory approvals, inflationary factors, and other risks. All information in this press release is as of the date set forth above. SolarWindow does not undertake any duty to update any forward-looking statement to conform the statement to actual results or changes in its expectations, whether because of new information, future events or otherwise, except as required by law. No statement herein should be considered an offer or a solicitation of an offer for the purchase or sale of any securities.
A photo accompanying this announcement is available at https://www.globenewswire.com/NewsRoom/AttachmentNg/cf79b471-f42e-4938-8c28-422b20e6f0de
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ARENA Backs 20 Solar R&D Projects With AUD 105.6 million – taiyangnews.info

ARENA has expanded its solar R&D commitment to AUD 105.6 million across 20 projects 
The portfolio combines advanced cell research with efforts to cut construction and operating costs 
Several projects are testing technologies that could move beyond today’s conventional silicon PV designs 
Australia is putting more money into the next generation of solar technology, with the Australian Renewable Energy Agency (ARENA) committing up to AUD 105.6 million, the agency’s largest single investment in solar PV research and development.  
The funding for the Ultra Low-Cost Solar PV Research and Development Funding Round was initially set at AUD 60 million. ARENA’s Acting CEO Chris Faris said the agency increased the funding to support a broader portfolio of projects and accelerate progress toward its ultra-low-cost solar goal. 
ARENA aims to bring the installed cost of large-scale solar to 30 cents per watt and achieve 20% module efficiency by 2030 under its ultra-low-cost solar plan. The aim is to reduce the levelized cost of electricity (LCOE) for solar PV to under AUD 20/MWh, but it flags evolving market conditions and deployment challenges in achieving these aims (see ARENA: Lower Solar Module Prices Not Enough For 30-30-30 Goal). 
“Achieving ultra low-cost solar requires innovation across the entire value chain. From the solar cells and modules themselves through to the way solar farms are built, operated and maintained, these projects will help unlock practical solutions that support a faster, more affordable energy transition,” added Faris. 
The 20 projects selected for the latest funding support have been divided into two streams. The first focuses on cells and modules, with projects aimed at improving efficiency, reducing costs and increasing stability. The second covers balance-of-system (BoS) costs and operations and maintenance (O&M), including ways to lower deployment and maintenance expenses and improve the output of utility-scale solar plants. 
Several projects are targeting the performance and durability of next-generation solar cells. The Australian National University (ANU), for example, will receive AUD 6 million for a project on TOPCon back-contact (TBC) silicon cells. The work involves ANU, UNSW, the University of Melbourne, PV Lab Australia, and JinkoSolar. The project will examine cell fabrication, surface passivation, photon management, lower-cost metallization, and longer-life module designs. Their target is to develop TBC cells with efficiencies above 28% and assess whether the technology can move toward pilot-scale manufacturing. 
Another ANU project will investigate low-cost parallel-connected perovskite/silicon tandem cells, receiving AUD 7.1 million from ARENA. 
At the University of Sydney, Prof. Anita Ho-Baillie and her team will receive funding to work on the stability of silicon-perovskite tandem cells. The project has been awarded AUD 7.4 million and will be carried out with Australian solar manufacturer Unison Solar Energy. The research will focus on whether the cells can retain their efficiency over a solar panel’s lifetime. The project is scheduled to run for five years, starting in 2027. 
The University of Sydney said the team has already achieved 30% conversion efficiency in silicon-perovskite tandem cells on both small and large areas, with the results independently confirmed by recognized testing centers.  
The ARENA funding is not limited to cell technology. Projects in the second stream (BoS and O&M) include work on AI-enabled reliability and yield improvements for utility-scale PV, lightweight bifacial laminate systems, and software platforms designed to optimize solar farm O&M. 
UNSW will work on site-tailored modules intended to reduce utility-scale deployment costs, alongside projects using machine learning, risk mapping, and AI-enabled technologies to improve O&M.  
Among the projects selected in this category is one by Sunspence Pty Ltd, which counts UNSW and Energus as project partners. It plans to deploy AUD 3.6 million in ARENA proceeds to develop a lightweight solar farm system for utility-scale solar using bifacial solar laminate, instead of conventional glass modules and heavy structures. It will test a 44-kW scale prototype to validate the system’s performance.  
Together, the selected projects cover the solar value chain from cell design to how large solar farms are built and operated. ARENA said this broader approach is necessary because reducing the cost of solar electricity will require improvements beyond the cells and modules themselves. 
A list of all the winning projects is available on ARENA’s website.  
TaiyangNews 2024

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Jewish Solar Challenge Opens 2026 Grant Application Cycle – markets.businessinsider.com

Solar panels installed at Westchester Torah Academy

Westchester Torah Academy in New Rochelle, New York installs solar panels with help from Jewish Solar Challenge.
LOS ANGELES, Sept. 01, 2026 (GLOBE NEWSWIRE) — The Jewish Solar Challenge (JSC) is excited to announce the opening of its 2026 grant application cycle on Sept. 1. All Jewish nonprofits that own their buildings, including synagogues, Jewish schools and Jewish camps, are eligible for matching grants up to $50,000 for the installation of solar panels. First-round applications are due by Sept. 25, and JSC will announce winners toward the end of the year.
The Jewish Solar Challenge plans to award another $300,000 in grants, bringing the total amount awarded for solar panels to $1.5 million since the organization launched in 2021. Organizations with existing quotes for solar – those ready to start installation immediately – receive priority.
“This grant cycle is an opportunity for Jewish institutions to turn interest in solar into a concrete plan,” said Mitchell Schwartz, founder of the Jewish Solar Challenge. “Through grants and hands-on guidance, we help communities take practical steps to lower long-term energy costs, strengthen their sustainability efforts and invest in a more resilient future.”

Veteran communications executive and environmentalist Mitchell Schwartz founded the Jewish Solar Challenge in 2021 with the dream of putting solar panels on the rooftops of every Jewish organization in North America. So far, the Jewish Solar Challenge has awarded matching grants to over 20 organizations across the U.S. and to one Jewish community in Uganda.
The Jewish Solar Challenge has supported over $10 million in solar projects, with a total estimated capacity of 3 MW. These installations generate approximately 4.6 million kWh of clean power per year, preventing the release of 1,700 metric tons of CO₂ into the atmosphere.
Prior to working with the Jewish Solar Challenge, Camp Gilboa – a remote Jewish summer camp in the Big Bear area of California – relied on propane generators around the clock. After receiving a JSC grant last year, the camp installed solar panels that now fully power its dining hall and kitchen.
“Environmental justice is central to who we are,” said Michael Auerbach, Executive Director of Camp Gilboa. “This solar project brings those values to life in a tangible way – both through how we operate and what our campers see every day. It reflects hagshama, one of our core pillars: the practice of actualizing our values, and is a meaningful step toward a more sustainable camp community.”
As electricity demand rises nationwide – driven in part by the rapid growth of AI and data centers – solar offers Jewish institutions a practical way to help lower long-term energy costs while advancing their sustainability goals.

“We are incredibly grateful to the Jewish Solar Challenge for helping make solar possible at WTA,” said Rose Just-Michael, Director of Communications and Development at Westchester Torah Academy, which was awarded a grant last year and recently installed its solar panels. “The solar installation is already helping reduce our energy costs, allowing us to direct more resources toward providing an excellent and affordable Jewish education. It has also created a meaningful opportunity for students to see our commitment to achrayut – responsibility for the environment – in action.”
Winners of the JSC grant are required to demonstrate a broader commitment to sustainability, extending beyond the installation of solar panels. Qualified applicants will move on to the final round of the grant process. Before final applications are due, experts at JSC will work directly with the organizations to curate specific initiatives aimed at making their community more sustainable. Second-round applications will be due Oct. 30. Interested Jewish organizations can apply at www.jewishsolarchallenge.com.
ABOUT JEWISH SOLAR CHALLENGE: Jewish Solar Challenge (JSC) is a nonprofit organization that addresses the climate crisis by facilitating the fiscal and environmental sustainability of Jewish community institutions through solar. JSC provides financial support for the installation of solar panels, as well as training, education and advocacy of community members.
A photo accompanying this announcement is available at https://www.globenewswire.com/NewsRoom/AttachmentNg/6bae5141-310c-4acc-bcce-7a097a335085
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For First Time, Physicists Film Quantum Particle Governing Organic Solar Cell Efficiency – Tech Times

The quantum process that decides whether a solar cell captures or wastes absorbed light now has a face. Physicists at the University of Graz in Austria, Philipps-Universität Marburg in Germany, and Forschungszentrum Jülich in Germany published findings on August 28, 2026 in Physical Review X showing that they directly filmed — for the first time — the full quantum-mechanical structure of the particle responsible for converting light into electricity, and watched it shrink by roughly 25 percent in less than 400 femtoseconds (a femtosecond is one quadrillionth of a second). The University of Graz announced the result on September 1, 2026.
The particle in question is called an exciton — a quantum-mechanical pair formed when light knocks an electron out of its normal resting state and leaves behind a positively charged vacancy, or “hole.” Electron and hole attract each other through the same Coulomb force that holds electrons in atoms, forming a neutral bound pair that carries energy but not net charge through the material. In organic solar cells, excitons are everything: they are the first product of absorbed sunlight, and the efficiency with which they travel to the interface where they can split apart into free electricity-carrying charges determines how much of that sunlight becomes current. Every exciton that self-destructs before reaching that interface is wasted energy.
Until this paper, no one had ever directly measured the full quantum-mechanical structure — the “wave function” — of an exciton in an organic semiconductor. Researchers could infer energy levels, lifetimes, and diffusion distances through indirect spectroscopic probes, but the exciton’s actual spatial shape, its internal phase structure, and how both evolved over time were accessible only through theoretical models. The new work, led by Marcel Theilen and colleagues, changes that fundamental limitation.
Before understanding what was measured, it helps to understand what a wave function is and why it matters. In quantum mechanics, a particle’s wave function is a mathematical description of the probability distribution of its possible states — where it is likely to be found, how it is moving, and in the case of complex particles like excitons, how the quantum state varies from location to location within the material. The phase of a wave function is analogous to the crest-and-trough pattern of an ocean wave — it describes the relative quantum-mechanical “orientation” of the electron-hole pair across adjacent molecules in the material, and it determines how the exciton interacts with its surroundings and whether it can coherently spread across multiple molecules or must collapse to a single one.
In organic semiconductors, this distinction — between an exciton that is delocalized (spread across several molecules) and one that is localized (confined to one) — has enormous practical consequences. Delocalized excitons can travel farther and reach charge-splitting interfaces more easily; localized ones tend to self-trap and dissipate their energy as heat. The Graz–Marburg–Jülich experiment directly measured both the spatial extent and the phase structure of a newborn exciton in a model organic semiconductor, alpha-sexithiophene (α-6T), and tracked both as the exciton aged.
The technique the team used is called femtosecond time-resolved photoemission orbital tomography (trPOT). It works in two steps separated by a precisely controlled time delay.
First, an ultrashort laser pulse — just 45 femtoseconds long — strikes a thin film of α-6T held at 24 Kelvin (−249°C or −416°F) inside an ultra-high vacuum chamber, creating an exciton. The cryogenic temperature suppresses thermal noise that would otherwise smear the quantum signal; the vacuum prevents surface contamination that would quench the exciton before it could be observed.
Second, after a variable delay, a second high-energy laser pulse at 21.7 electron-volts — generated by a nonlinear optical process called high-harmonic generation — ejects a photoelectron from the exciton. The energy and three-dimensional momentum direction of that ejected electron are recorded by a time-of-flight momentum microscope, an instrument that captures the full angular distribution of emitted electrons simultaneously. Varying the delay between pump and probe pulses yields different temporal snapshots; strung together, these form a quantum-mechanical film of the exciton’s evolution.
The critical breakthrough came from Graz: the team, led by Peter Puschnig, developed a quantitative theoretical model that translates the momentum-space images into the real-space wave function of the exciton. “Using our model, it is possible to deduce the spatial shape and the internal quantum-mechanical phase of the exciton wave function directly from measured photoelectron images,” explained Siegfried Kaidisch, a PhD student who made key contributions to the theory work.
This is a tabletop experiment — the high-energy probe pulse comes from a laboratory laser system rather than a synchrotron particle accelerator, meaning the technique can in principle be adopted by any well-equipped ultrafast laser lab. That accessibility matters: if trPOT is to become a standard characterization tool for organic semiconductor design, it cannot require large-facility access.
One indicator of the experiment’s difficulty: each individual time-delay point required approximately 25 hours of continuous data collection. Mapping the exciton’s evolution at multiple delays — the equivalent of multiple frames in the quantum film — is an extraordinary logistical feat. The α-6T films were grown at Jülich by Monja Stettner (whose sample preparation was part of her PhD dissertation) and transported to Marburg under ultra-high vacuum to preserve their quality. “The precise alignment of the molecules and their targeted decoupling from the substrate are important for maintaining the exciton long enough to make its formation visible,” Stettner told the university press office.
The reconstruction produced three findings that the theoretical community had predicted but could not directly verify until now.
An exciton spread across three molecules, not one. Conventional textbook descriptions of excitons in organic molecular crystals — known as “Frenkel excitons” — treat them as tightly confined to a single molecule. The new data showed that the exciton in α-6T was coherently spread across approximately three molecular units, with an initial spatial width of about 8.8 ångströms (roughly 0.88 nanometers, or about 0.035 millionths of an inch). This puts α-6T’s excitons in an intermediate category between purely localized Frenkel excitons (single-molecule) and the large-radius Wannier-Mott excitons found in inorganic semiconductors like silicon. The PRX paper documents this finding in quantitative detail.
A characteristic quantum phase pattern. The wave function showed a near-π phase shift between adjacent molecules along the molecular stacking direction — a signature of a coherent intermolecular quantum interaction, predicted by GW/BSE many-body theory and now confirmed in the PRX paper for the first time in any organic semiconductor system. This phase structure is what makes the multi-molecule delocalization coherent rather than accidental.
Self-trapping in 400 femtoseconds. Within less than 400 femtoseconds of its birth, the exciton contracted from its initial 8.8 Å width to approximately 6.9 Å — a roughly 25 percent shrinkage — as the surrounding molecular lattice responded to its presence and tightened its grip. This process, called exciton self-trapping driven by exciton-phonon coupling, had been predicted theoretically and is believed to reduce exciton mobility and limit organic solar cell efficiency, but had never been directly observed in real time before. The team also observed a shift in the exciton’s energy over the same period, consistent with the increased binding energy that accompanies self-trapping.
“We have now succeeded for the first time in experimentally reconstructing the spatial distribution and temporal evolution of an exciton’s wave function in the very first moments of its existence,” said Peter Puschnig, Professor of Electronic Structure of Nanomaterials at the University of Graz, who led the theoretical side of the work. “The measurements show that, after its formation, the electron-hole pair extends across approximately three molecules and then shrinks by around 25 percent within the first 400 femtoseconds.” The full Puschnig quote was released through the university’s official press office.
The self-trapping process revealed here is exactly what photovoltaic engineers have long suspected but could not directly measure: a rapid localization event that reduces how far an exciton can travel before it reaches the charge-splitting interface, and therefore caps how efficiently a solar cell can convert absorbed light into current.
Standard models of exciton transport in organic solar cells — particularly those based on Förster resonance energy transfer (FRET) — assume that excitons hop incoherently from molecule to molecule as localized, single-molecule Frenkel particles. The new data shows that in α-6T, at least, the exciton begins its life delocalized across three molecules with a coherent quantum phase structure before self-trapping collapses it. This initial delocalization window — a few hundred femtoseconds — is the period during which the exciton is most mobile and most likely to reach a heterojunction before trapping. FRET-based design models that ignore this window may systematically underestimate exciton mobility and point engineers toward suboptimal junction geometries.
A separate June 2026 study from researchers at Linköping University and the University of Potsdam, published in Nature Photonics, independently found that longer exciton lifetimes improve fill factors — suggesting the field is converging on the exciton dynamics problem from multiple angles.
Alpha-sexithiophene is a model system, chosen for its well-understood structure and tractable experimental properties. The physical principles that make trPOT work — photoemission from an oriented molecular film, combined with quantitative wave-function reconstruction from momentum-space data — are broadly applicable. Puschnig identified the next target directly: “In the next step, we want to observe the separation of electrons and holes in so-called donor-acceptor systems. This process determines how efficiently light can be converted into electrical current and is therefore central to future developments in organic photovoltaics.” The donor-acceptor next steps are the primary focus of the team’s planned follow-on work.
Beyond photovoltaics, the technique is directly applicable to biological light-harvesting complexes (where exciton transport governs photosynthetic efficiency), quantum-coherent excitonic devices, and hybrid organic-two-dimensional-material systems — any setting where the real-space quantum structure of a correlated electron-hole pair matters.
The research is the most significant milestone to date in the EU-funded Orbital Cinema project, an ERC Synergy Grant worth approximately €11.35 million (approximately $13.2 million USD at September 2026 exchange rates) that runs through June 2029. The project, which funds four research groups in Austria and Germany, aims to produce the equivalent of slow-motion video footage of electrons moving in quantum-mechanical orbitals with sub-femtosecond time resolution — and the exciton film published this week is precisely that ambition realized for the first time.
The photoemission orbital tomography technique itself was pioneered in 2009, when Puschnig and colleagues published a landmark paper in Science demonstrating that molecular orbital densities could be reconstructed directly from photoemission data. The extension to time-resolved measurements was demonstrated in 2021, and the current paper represents the first application to delocalized, multi-molecular excitons with full phase resolution. The theoretical framework developed for this experiment — validated against the most sophisticated available quantum chemistry calculations — is now ready to be applied to the broader class of materials that will determine how much of the world’s rooftop solar energy is actually captured.
Currency conversions in this article are approximate and based on exchange rates as of September 1, 2026.
An exciton is a short-lived quantum particle formed when light knocks an electron out of its resting state in a semiconductor, leaving a positively charged “hole” behind. Electron and hole attract each other, forming a neutral bound pair that carries energy through the material. In an organic solar cell, sunlight first creates excitons; those excitons must then travel to a specially designed interface where they can split into free charges that generate current. If an exciton self-destructs before reaching that interface — either by radiating energy as light or by becoming trapped in the lattice — that portion of absorbed sunlight is lost. The efficiency of an organic solar cell is therefore heavily determined by how far excitons travel and how quickly they self-trap. Until now, the quantum physics of how excitons form and self-trap could only be modeled, not directly filmed. For a primer on exciton basics and organic semiconductors, Ossila provides a detailed introduction.
A regular camera detects photons of visible light reflecting off a surface. Photoemission orbital tomography (trPOT) works at quantum scales and femtosecond timescales by firing a high-energy laser pulse at a material, ejecting electrons whose direction and energy encode information about the quantum-mechanical state of the particle they came from. A sophisticated detector called a time-of-flight momentum microscope captures the full three-dimensional distribution of those ejected electrons simultaneously. A theoretical model then reverses the calculation, reconstructing the spatial shape and quantum phase of the exciton wave function from the electron distribution data. Each “frame” of the resulting quantum film took approximately 25 hours of continuous data collection. The Wikipedia article on photoemission orbital tomography covers the technique’s history and foundations in further detail.
Standard models of exciton energy transport in organic solar cells — particularly those based on Förster resonance energy transfer — treat excitons as localized, single-molecule particles hopping randomly between molecules. The new data shows that in alpha-sexithiophene, newly born excitons are coherently spread across roughly three molecules before self-trapping collapses them. During that brief delocalized phase — a few hundred femtoseconds — an exciton may travel significantly farther than localized models predict, suggesting that FRET-based design rules for donor-acceptor junction distances may be systematically too conservative in materials with strong π-orbital overlap. Directly measuring this delocalized phase for different organic semiconductor candidates may help identify materials whose excitons stay delocalized long enough to improve charge-generation efficiency. The Theilen et al. preprint provides technical detail on the wave function reconstruction methodology and the implications for energy transport models.
Yes — trPOT requires only that a material can be deposited as a thin, ordered molecular film and that a high-energy ultrashort laser pulse (generated by high-harmonic generation) can be applied to eject photoelectrons. These are conditions met by a broad class of organic semiconductors, two-dimensional materials such as transition metal dichalcogenides, and hybrid organic-inorganic systems. The same research team at Graz has already extended the photoemission tomography framework to periodic 2D systems in theoretical work published in late 2025. The next planned experiments involve directly observing how electron-hole pairs separate at donor-acceptor interfaces — the critical step that determines organic solar cell efficiency.
ⓒ 2026 TECHTIMES.com All rights reserved. Do not reproduce without permission.

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Proposed Somerset County solar project draws differing opinions – WBOC TV

Sunshine and clouds mixed. Hot. High 91F. Winds WSW at 5 to 10 mph..
Mostly cloudy with scattered thunderstorms mainly during the evening. Gusty winds and small hail are possible. Low 72F. Winds WSW at 5 to 10 mph. Chance of rain 60%.
Updated: September 1, 2026 @ 10:07 am

PRINCESS ANNE, Md. — A proposed solar project in Somerset County is drawing differing opinions from neighbors as state officials review whether the project can move forward.
Old Princess Anne Community Energy Initiative, LLC is seeking approval to build a 2.25-megawatt solar generating facility on about 15 acres of a roughly 29-acre property at 10410 Old Princess Anne Road.
The project would generate energy for community solar subscribers within Delmarva Power and Light’s service territory.
The Maryland Public Service Commission held a public comment hearing Monday at the Princess Anne Library as part of its review of the proposal.
The hearing included a presentation from the applicant, along with recommendations from the Power Plant Research Program of the Maryland Department of Natural Resources and the Commission’s Technical Staff.
Neighbors were also given an opportunity to share their views about the project.
Arlene Deras of Princess Anne says she believes the project could benefit the community, particularly if it creates opportunities for local students and graduates.
“I believe it would be good if it brings jobs,” Deras said. “We have a college here in the community, and we have high school kids and stuff that would be graduating. It’d be a good, you know, commitment to them, to, you know, for their education.”
Deras also says she hopes the public discussion can help bring people together.
“Anything working with the community will bring us closer,” Deras said. “There is so much division. That’s what I worry about a lot.”
Michael Edwards, who operates Wood Duck Landing Farm in Princess Anne, says he has solar panels on his own home but believes large-scale solar projects should not take up agricultural land.
“It is the wrong place to put solar,” Edwards told WBOC. “Solar belongs overtop parking lots on top of buildings. That kind of thing.”
Edwards says he supports using solar technology but believes it should be placed in locations that minimize its impact on farmland.
“It would be nice to see that technology applied with common sense,” Edwards said. “Let’s not give up our good agricultural land that is in demand. Let’s feed our people, and not put solar on top of that.”
Christion Quillen of Fruitland, who works in construction and closely with farmers, also expressed concerns about using agricultural land for the project.
“The land that they’re, they want to use is just, you know, it’s for, in my opinion, it’s just more for agricultural needs, like crops, you know, corn, chicken houses, you know, things we need for food,” Quillen said.
The proposed project is still under review by the Maryland Public Service Commission. A decision on the application has not been announced.
WBOC reached out to Old Princess Anne Community Energy Initiative, LLC for comment on the proposal, but the applicant declined to comment.
Written comments on the project can be submitted to the Maryland Public Service Commission through Sept. 30, 2026, and must reference Case No. 9822.

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SolarWindow launches 0.85 mm-thick, self-adhesive solar film – pv magazine India

US-based SolarWindow Technologies has announced the commercial launch of ElectroFlex, an ultra-thin, flexible solar product designed to generate electricity on flat and curved surfaces.
The product targets applications where conventional PV modules face limitations due to weight, rigidity, or mounting requirements.
The company describes ElectroFlex as a “peel-and-stick” solution that can be applied directly to various surfaces without frames, rigid glass, or conventional support structures. Its size and color can be customized to meet customer specifications.
The new product consists of a five-layer composite laminate measuring 0.85 mm in total thickness. The stack comprises a 0.10 mm front encapsulant, 0.16 mm high-efficiency solar cells, a 0.04 mm copper cell backing, a 0.30 mm composite laminate and a 0.25 mm rear substrate.
ElectroFlex is 0.85 mm thick and integrates interdigitated back-contact (IBC) cells with a power conversion efficiency of 24.4%, according to the manufacturer. It has a power-to-weight ratio of approximately 73 W/kg.
SolarWindow said it also supplies wiring, harnesses, electrical systems, and power-balancing components needed to integrate the product and deliver the electricity it generates.
The company is targeting applications in the transportation, marine, aerospace, architecture, agriculture, infrastructure, utility, and specialty vehicle sectors.
Potential applications include data centers and buildings, roofs of commercial trucks and fleet vehicles, curved train surfaces, and drone and aircraft structures, according to the manufacturer.
ElectroFlex is initially available to Tier 1 original equipment manufacturers (OEMs) in the United States. SolarWindow said it plans to expand sales to selected markets in North America and Asia over the coming quarters.
The company is also developing LiquidElectricity, a transparent coating designed to turn glass and plastic surfaces into electricity-generating elements. SolarWindow claims the technology, which remains under development, could generate electricity from natural and artificial light, as well as low-intensity, shaded, and reflected light.
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What about farm land being lost due to climate change? – Yorkshire Post Letters – Yorkshire Post

What about farm land being lost due to climate change? – Yorkshire Post Letters  Yorkshire Post
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