Queensland opens funding call for solar, wind, storage projects – pv magazine Global

The government of Queensland in Australia has opened a call for proposals for new solar and wind projects, battery storage systems, and broader support for the state’s northwest power system under the AUD 200 million ($144 million) North West Energy Fund (NWEF).
The NWEF was established as part of the state government’s changes to the proposed CopperString transmission project, which aims to connect north and northwest Queensland with the National Electricity Market (NEM) via a new link between Townsville and Mount Isa.
The fund, managed by state-owned Queensland Investment Corporation (QIC), is designed to support the delivery of new energy generation and storage solutions in partnership with the private sector across Mt Isa, Cloncurry, Julia Creek and Richmond while the CopperString transmission project progresses.
QIC said the AUD 200 million fund will consider proposals ranging from new solar and wind projects, gas and battery storage systems, as well as broader support for the North West Power System.
Alongside progressing such solutions, the QIC said work will also be undertaken to inform planning for the CopperString Western Link between Hughenden and Mount Isa.
The call for proposals follows QIC’s market sounding with developers, generators, electricity distributors, suppliers, customers and local governments in and around Mount Isa, Cloncurry, Julia Creek and Richmond.
QIC head of global infrastructure Ross Israel said the market sounding had provided key insights that will allow QIC to fast-track opportunities to connect private capital with priority projects in the northwest.  
“Supporting near-term investable projects that deliver reliable, affordable and sustainable energy will help unlock economic development opportunities in the northwest,” he said.
“A critical piece of this work will be undertaking the work required to define the end-state system to optimise the opportunity set in the region.”
“QIC’s role is to turn the objectives of the Queensland Energy Roadmap into investable projects that deliver reliable, affordable and sustainable energy and the North West Energy Fund presents a clear pathway for QIC to partner on near-term opportunities.
QIC has released investment guidelines highlighting key criteria, including a need for proposals to deliver benefits from, or reach commercial operations by 2030; and demonstrate an improved cost of delivered power in the northwest and/or surrounding regions.
Queensland Energy Minister David Janetzki said the NWEF builds on the state government’s commitment to deliver the CopperString project and progress economic development in the northwest.
“This fund enables us to pass on the benefits of CopperString to communities west of Hughenden while advancing the accelerated delivery of the project’s Eastern Link,” he said. 
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Top ten community solar states show the power of program design – pv magazine USA

Maine is the leading state for community solar deployment per capita according to the latest Institute for Local Self Reliance data. ILSR’s tracker ranks states by community solar capacity per resident, showing how program design directly impacts market development and growth potential.
The top ten states, according to ILSR’s per-capita ranking, are Maine, Minnesota, New York, Massachusetts, the District of Columbia, Colorado, Illinois, Maryland, Rhode Island, and New Jersey.
Community solar allows customers to subscribe to a portion of an off-site solar project and receive bill credits for the electricity generated. The model is especially important for renters, multifamily residents, low- and moderate-income households, and homeowners whose roofs are not suitable for solar.
ILSR tracks community solar capacity in states with formal programs that allow non-utility ownership. Its latest tracker notes that 19 states and Washington, D.C., allow community solar, though the organization’s capacity tracking is limited to states with accessible, regularly maintained success data.
#1 – Maine
Maine ranks first by a wide margin, with roughly 700 watts of community solar per person, according to ILSR. The organization said community solar accounted for 53% of all existing solar capacity in the state at the end of 2025.
Maine’s market grew under its net energy billing rules, created in 2011 and expanded in 2019, but recent policy shifts, like LD 1777, signal upcoming changes that industry professionals should monitor.
#2 – Minnesota
Minnesota remains one of the foundational U.S. community solar markets. The state’s program launched in late 2014, and Minnesota has long been an early example of a market that scaled by avoiding hard caps on programs and using a compensation structure that made projects financially viable.
Minnesota was the national leader in community solar for years before being overtaken by New York in total capacity and, more recently, by Maine on a per-capita basis. Even so, its ranking shows the durability of the state’s early market design.
#3 – New York
New York is the largest community solar market by total tracked capacity. The state passed its first community solar legislation in 2015, and its Community Distributed Generation program has since become one of the most active in the country.
ILSR said New York added 112 MW of community solar capacity in the most recent quarter, representing 4% growth. The state was also among the year-over-year growth leaders in 2025, with community solar capacity up 28%. At the end of 2025, community solar represented 42% of New York’s existing solar capacity.
#4 – Massachusetts
Unlike some other leading markets, Massachusetts governs community solar through its broader solar incentive framework rather than a standalone community solar law.
The latest version of the Solar Massachusetts Renewable Target program, SMART 3.0, took effect in September 2025. ILSR notes that SMART 3.0 set a 900 MW size cap for 2025, and new community solar projects will likely apply under the updated rules because they offer more favorable incentives than SMART 2.0.
#5 – District of Columbia
The District of Columbia ranks fifth. ILSR notes that D.C. reports community solar figures annually, rather than quarterly. At the end of 2025, community solar represented 20% of existing solar capacity in the District, placing it alongside Maine, New York, Minnesota, and Massachusetts as one of the few tracked markets where community solar makes up a double-digit share of total solar capacity.
#6 – Colorado
Colorado was one of the earliest adopters of community solar policy, establishing its program through HB 1342 in 2010. ILSR notes that the original program design was slow to gain traction, but updates in 2016 and 2019 improved the market.
Colorado’s current market has largely operated through Xcel Energy’s Solar*Rewards Community program. A new inclusive community solar program established by SB 24-207 is scheduled to begin in 2026, with initial capacity allocations of 50 MW for Xcel Energy and 3.5 MW for Black Hills Energy.
#7 – Illinois
Illinois passed its first community solar legislation in 2016 and now administers community solar through programs such as Illinois Shines and Illinois Solar for All.
ILSR notes that Illinois uses long-term contracts between utilities and approved vendors to purchase energy and renewable energy credits. Contract terms vary by program type, with Illinois Shines offering 15-year terms for Community-Driven Community Solar projects and 20-year terms for Traditional Community Solar and Public School projects.
#8 – Maryland
Maryland established its community solar pilot program in 2017 and divided capacity across investor-owned utility territories. The state also built low- and moderate-income access into the program design, including a dedicated share of capacity for lower-income households.
In 2025, Maryland was one of the fastest-growing tracked community solar markets, with ILSR reporting 30% year-over-year growth.
#9 – Rhode Island
In Rhode Island, state lawmakers expanded remote distributed generation rules in 2016, creating multiple structures for shared renewable generation. Community net-metering systems operate like traditional community solar programs, allowing utility customers to subscribe to a portion of a facility and receive virtual net-metering bill credits based on their share of the project’s output.
Rhode Island’s ranking shows how adjusting community solar capacity for population can lift smaller states higher on the list.
#10 – New Jersey
New Jersey passed its first community solar legislation in 2018, launched a pilot program, and made the program permanent in 2023.
New legislation could drive a significant expansion of the market. In 2025, New Jersey enacted legislation calling for an additional 3 GW of community solar capacity, bringing the total available program capacity to 3.25 GW. The state also requires 51% of each community solar project to be committed to low- and moderate-income participants, and subscribers must be guaranteed savings of at least 15% of the value of bill credits.
New Jersey was the fastest-growing state in ILSR’s most recent quarterly update, increasing community solar capacity by 16%, or 35 MW.
Taken together, the per-capita rankings show that community solar leadership is not limited to the largest solar states. Maine, Minnesota, and D.C. rank ahead of several larger markets because community solar represents a larger share of their local solar portfolios.
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Remote Australian community secures permit for Sun Turtle solar and battery project – pv magazine Global

From pv magazine Australia
A proposed 100%-First Nations-owned solar and battery power station in Western Australia, the Aalga Goorlil Sun Turtle Djarindjin Community Power Project (DCPP), has received planning approval from the Western Australia Regional Development Assessment Panel (RDAP).
The project will be built on the Dampier Peninsula in the Kimberley region, about 170 kilometers north of Broome, 2,400 km north of Perth, and 1,600 km southwest of Darwin. The AUD 12 million ($8.6 million) project is expected to meet 80% of the energy needs of the Djarindjin and Lombadina communities.
The remaining 20% of electricity demand will be supplied by an upgraded diesel generator operated by state-owned utility Horizon Power.
The project will feature 3,408 solar panels arranged in the shape of the Djarindjin community’s official symbol. The installation will include a 3.25 MW battery energy storage system (BESS) connected to the Djarindjin-Lombadina microgrid.
The project aims to reduce the communities’ reliance on fossil fuels, lower energy costs, and support broader climate action efforts.
Djarindjin Aboriginal Corporation Chief Executive Officer Nathan McIvor said community ownership is central to the project. “The time has passed where communities rely on a broken system, and we out at Djarindjin don’t believe the system works for us,” McIvor said.
In a statement, the First Nations Clean Energy Network (FNCEN) said the RDAP agreed that “the essential infrastructure development supports community self-sufficiency, and broader benefits including training and employment.”
Revenue generated by the project will support the Djarindjin Aboriginal Corporation’s efforts to expand local employment and training opportunities, while helping to deliver and subsidize essential services.
McIvor said the Aalga Goorlil “Sun Turtle” project would support the community’s economic independence, diversify revenue streams, and build local capacity to construct, operate, and maintain critical infrastructure across the Dampier Peninsula.
He said the project is an example of self-determination in action.
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PV yield uncertainty is not an isolated problem, it’s a triple threat to project stability – Saur Energy

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Every solar project begins with a number: expected annual energy yield (PVOUT). It feeds into nearly every major project decision: plant design, equipment selection, CAPEX assumptions, debt sizing, investor returns, and long-term contractual commitments.
But PVOUT is never a single fixed truth. Behind it sits a range of uncertainty. And just as the estimated PV yield means different things to different stakeholders in the solar project, the same applies to uncertainty and challenges it represents.
The same uncertainty figure can therefore create three very different conversations:

Engineers use yield estimates to guide key design decisions, from tracker configuration and row spacing to DC/AC ratio, inverter loading, clipping strategy, and loss assumptions. For them, uncertainty is not just a reporting metric. It’s a practical design constraint.
When uncertainty is low and well understood, they can compare design options with confidence and justify choices that improve performance or reduce costs. When uncertainty is high or poorly defined, optimization becomes harder to defend, and conservative decisions often feel safer.
This can lead either to overdesign, with unnecessary capacity, margins, or equipment, or to under-optimization, where the model misses site-specific effects such as soiling, shading, bifacial albedo, or clipping dynamics.


Investors do not invest in one production number. They invest in a range of possible outcomes. While P50 represents the expected case, investment committees also focus on downside scenarios. They need to know whether the project still works if production is lower, CAPEX rises, financing tightens, or market prices weaken.
This is why the gap between P50 and P90 matters. A project may show an attractive P50 return, but if uncertainty is high, the P90 return can be much weaker. The wider the gap, the more fragile the investment case becomes.
Reducing uncertainty may not increase expected yield, but it can improve confidence in downside returns – often the case that matters most in investment decisions.

Lenders view yield uncertainty through one main question: can the project service its debt under conservative assumptions?
This is usually assessed through metrics such as Debt Service Coverage Ratio (DSCR), which shows whether project cash flow is sufficient to cover debt payments. Banks often use conservative production cases, such as P90, but they do not simply apply an annual uncertainty discount across the full project life.
That approach can be too blunt. Mechanically reducing production every year can weaken DSCR, loan-life coverage, and equity returns, making a project look less bankable than it really is. Instead, lenders usually manage uncertainty through financing structure: debt sizing, DSCR thresholds, reserves, covenants, dividend restrictions, guarantees, or sponsor support.

Simply reporting uncertainty is rarely enough. Here is why actively reducing uncertainty is more effective.
Let’s look at an example of the effects of “doing nothing” (scenario A) and “reducing uncertainty” (scenario B) on a simplified 10 MW PV project. The expected specific production is 1,500 kWh/kWp. That gives the project a P50 annual production of 15,000 MWh. On paper, the project looks the same in both scenarios.
The difference is how uncertainty is treated.
In the “do nothing” case, the project relies on standard inputs, limited validation, averaged data such as TMY, hourly simulations, and simplified loss assumptions. The result is a total PV yield uncertainty of around ±10%. This places P90 annual production at about 13,500 MWh. This project would reach the lender’s required DSCR of 1.25, but only with 70% debt and a P90 RoE of about 4.9%.
In the “reduce uncertainty” case, the same project uses better irradiance data, longer historical time series, more detailed modelling, higher temporal resolution, and more realistic loss assumptions. The P50 annual production remains 15,000 MWh, but uncertainty falls to around ±8%, raising P90 annual production to about 13,800 MWh. In the same illustrative example, this improves DSCR headroom, allows debt to increase to 72%, reduces required equity, and raises P90 RoE to about 5.4%.
Nothing physical has changed. The power plant size is the same. The expected production is the same. The energy price is the same.
What changes is confidence. That confidence has financial value.
Fig. 2. Reducing PV yield uncertainty is beneficial for each stakeholder’s objective.
This is one of the most important points in the uncertainty discussion. Reducing uncertainty does not necessarily mean increasing the expected yield. In many cases, the P50 remains unchanged. The improvement appears in the conservative case.
When uncertainty falls, the gap between P50 and P90 narrows. That means the project’s downside production estimate improves, even if the expected production stays the same.
For engineers, this can justify more precise design decisions.
For investors, it can improve the resilience of downside returns.
For lenders, it can create more comfort around debt service.
This is why uncertainty reduction should not be seen only as a technical refinement. It can influence leverage, equity requirement, capital efficiency, and the overall competitiveness of a project.

Reducing uncertainty means improving the parts of a project you can control. For instance, interannual variability cannot be eradicated, but uncertainty in irradiance inputs and simulation assumptions can often decrease with relatively low friction. That usually happens when using validated, high-quality solar datasets over a long period of time, moving beyond typical-year averages where possible, and incorporating modelling approaches that better reflect real plant behaviour and losses. In regions where the situation is more complex, adding site measurements and local validation can further tighten confidence.
Below are things to consider if you want to take action in reducing uncertainty.
     Validate component datasheets and ensure model parameters match what will be installed.
     Use proven, validated solar radiation datasets (long-term satellite-based time series + ground validation where available).
     Use higher temporal resolution when relevant (sub-hourly) to capture clipping, peaks, and thermal dynamics.
     Use long-history time series to understand interannual variability (it’s not enough to rely on TMY).
     Replace fixed “rules of thumb” losses with physics-based models where possible (soiling, albedo, temperature).
     Model optical losses with advanced methods where complexity warrants it (e.g., ray-tracing in challenging layouts).
PV yield uncertainty is often owned by technical teams, but its consequences are shared by everyone. It can influence investors through downside confidence, engineers through design conservatism and banks through bankable energy assumptions. Reducing uncertainty can change how defensible the investment case becomes, how precisely engineers can optimize, and how efficiently lenders can finance a project.
At the same time, uncertainty reduction should be proportionate to the project and market context. While deeper data, modelling, and validation work can be justified on utility-scale projects, the same investment may not always be worthwhile for smaller assets or in markets where energy prices, curtailment, or interconnection risks dominate the business case.
The choice is not between uncertainty and certainty. No PV project can eliminate uncertainty completely. The real choice is between accepting uncertainty passively or reducing what can be reduced before it becomes expensive.
AUTHOR


Pablo Caballero, Engineer & Technical Writer at Solargis
Pablo Caballero, Engineer & Technical Writer at Solargis
Pablo is an industrial engineer with extensive experience in the renewable energy and software development sectors. 
We are India’s leading B2B media house, reporting full-time on solar energy, wind, battery storage, solar inverters, and electric vehicle (EV)
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Setting a New Benchmark in Shading Performance: Jinko Solar’s Tiger Neo 3 Earns TÜV Rheinland Class A+ Anti Shading Certification – SolarQuarter

Setting a New Benchmark in Shading Performance: Jinko Solar’s Tiger Neo 3 Earns TÜV Rheinland Class A+ Anti Shading Certification  SolarQuarter
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Qair reaches financial close on 46.51-MWp Brecks solar project in UK – Renewables Now

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European Commission to conduct risk assessment of EU solar, wind installations – pv magazine Global

The European Commission has unveiled a strategic roadmap for digitalization and artificial intelligence (AI) in energy, as part of a wider tech sovereignty package.
The roadmap sets out how AI and other digital solutions can ensure the sustainable integration of digital infrastructure in the bloc’s energy system, while also making the system more efficient.
In a statement available on its website, the commission says the roadmap will tackle cybersecurity concerns by undertaking a risk assessment of solar and wind installations.
“Solar and wind power generation digital infrastructure are emerging as a priority cybersecurity concern, with high risks that include the manipulation or prevention of electricity production, unauthorized access to operational data, the infiltration of key supply chain actors and the possibility to trigger remote blackouts,” the commission said.
“To respond to these risks, the commission is undertaking a risk assessment of solar and wind installations in the EU, including cybersecurity risk assessment, and has restricted the use of EU funds for projects involving inverters from high-risk suppliers.”
It adds that it will also review the energy security of supply framework, which may include new measures for better identification and management of cybersecurity risks in critical energy devices.
“Strengthening cybersecurity and safeguarding critical infrastructure across the whole energy system must remain central as digitalization comes with exposure to hybrid and cyber threats,” commented Dries Acke, Deputy CEO of SolarPower Europe.
The strategic roadmap also plans to accelerate the deployment of digital and AI solutions in Europe’s electricity infrastructure, support a faster rollout of smart meters and build sovereign AI models for the energy sector, trained on European data and developed by European companies, that help to simplify the exchange of cross-border energy data.
It also commits to ensuring that data centres are integrated into the bloc’s energy system in a sustainable and transparent manner.
Acke added that as AI adoption accelerates and data centre capacity expands, Europe must ensure this growth strengthens, rather than strains, the energy system. 
“Data centres should therefore be properly integrated through smarter planning, greater flexibility solutions and closer coordination between all stakeholders,” he said. “The combination of solar and battery storage provides a prime opportunity for swift and sustainable data centre integration.”
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Propane tanks, solar panels complicate 3-alarm fire at Franklin, Mass., home – WCVB

Fire crews battled a three-alarm fire at a home in Franklin, Massachusetts, Wednesday evening.
The fire broke out in the basement of a home on Elm Street, eventually spreading to the first and second floors and then the attic.
Fire officials said the fire was heavily involved when crews first arrived, and there was difficulty putting it out because of how far the flames had spread.
Crews were called out of the home due to an impinged propane tank. Solar panels on the roof of the home also made battling the blaze more difficult.
“By the time we were ready to, to really go with heavy water, the fire had really taken the whole house at that point,” Franklin Battalion Fire Chief Keith Darling said.
Three people were inside the home at the time of the fire, but all residents were able to evacuate safely.
Video from a witness at the scene showed flames and thick black smoke shooting from the top of the home.
“It’s just crazy, we’ve been living here – I’ve been here for five years now, and I’ve never seen anything up close like this before,” neighbor Candace Devens said.
Several neighboring towns, including Attleboro, Foxborough, Milford and Hopkinton, responded to put out the blaze.
No one was hurt in the blaze.
The cause of the fire is under investigation.
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A Swiss startup devises an intelligent photovoltaic façade that tracks and moves with the sun – Building Design + Construction

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A Swiss startup, Zurich Soft Robotics, has devised a photovoltaic façade that tracks and moves with the sun. The company calls Solskin the first commercially available intelligent climate-adaptive building envelope.
Developed by architects and robotics researchers at Swiss research university ETH Zurich, the Solskin hardware comprises adjustable photovoltaic modules that serve a dual purpose: producing renewable electricity while also shading the interior.
The PV modules are mounted on a modular structure that includes all the wiring. The dynamic, lightweight system can be used on both new buildings and façade renovations. Through testing, the team also has confirmed the system’s extreme weather resistance.
When placed in front of a building’s windows, Solskin can reduce building energy consumption by up to 80%, according to ETH research. The solar-tracking modules produce up to 40% more electricity than comparable façade systems. In some cases, such as a south-facing glazed office space in Zurich, the Solskin system can cover the building’s entire energy consumption.
Zurich Soft Robotics’ recent innovation, Solskin AI, makes the system even smarter by leveraging predictive self-learning algorithms. With Solskin AI, the system can control the position of the solar modules in real time—achieving optimal energy efficiency and ensuring the comfort of occupants behind the Solskin facades. The use of AI helps address user preferences, weather conditions, and energy consumption.
Solskin’s moving elements constantly adapt to the environment, leading to increased comfort and reduced energy consumption—which will become increasingly critical with climate change.
All Solskin systems will have continuous AI updates, ensuring the energy-efficient, intelligent building envelopes are always up to date, with a focus on longevity and sustainability.

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York Space Systems Closes Acquisition of Solestial, U.S.-Sourced Space Solar Capability – Yahoo Finance

York Space Systems Closes Acquisition of Solestial, U.S.-Sourced Space Solar Capability  Yahoo Finance
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Surprising study by Scatec reveals that recycling solar panels in Brazil can return R$ 3.18 for every R$ 1 invested, transforming photovoltaic energy waste into a new source of economic value and strengthening the circular economy in the sector. – CPG Click Petróleo e Gás

Solar Energy
Scatec announced a significant advancement for the sustainability of solar energy in Brazil. During Environment Week, the company reported that it aims to achieve 100% recycling of materials present in damaged solar panels used in the construction of the Rio Urucuia plant in Minas Gerais.
The project, which has an installed capacity of 142.31 MWp and about 201,000 photovoltaic modules, reinforces the potential of solar panel recycling as an environmental and economic tool. According to estimates from the photovoltaic energy sector, every R$ 1 invested in this process can generate a return of R$ 3.18, strengthening the circular economy and reducing waste disposal.
Besides financial gains, the initiative prepares the Brazilian market for a future where millions of solar energy equipment will need to be replaced at the end of their useful life.
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The Rio Urucuia plant marks a new stage in Scatec‘s environmental strategy. The company intends to fully reuse the materials present in modules damaged during transport, storage, or installation.
Until recently, solar panel recycling processes focused mainly on the recovery of glass and metals. Now, the company is advancing towards the reuse of more complex materials, including plastics and rubbers.
The company’s Community Relations Coordinator, Ledjane Oliveira, who also has a background in Materials Engineering, highlights that this evolution significantly increases the efficiency of waste reuse generated by the photovoltaic energy industry.
The concept of circular economy is gaining strength in various industry segments, especially those related to the energy transition.
In practice, the proposal consists of reducing waste and keeping materials in use for as long as possible. Instead of simply discarding waste, it returns to the production chain as raw material for new products.
In the solar energy sector, this model offers several advantages:
As photovoltaic energy grows in Brazil, the adoption of the circular economy tends to become increasingly strategic to ensure long-term sustainability.
The result achieved in Rio Urucuia was built from previous experiences.
In 2025, Scatec initiated a pioneering project involving the recycling of approximately 4,700 modules from the solar plants of Mendubim, in Rio Grande do Norte, and Quixeré, in Ceará.
At that time, the company reached a recycling rate of about 85%. The knowledge gained from these operations allowed for process improvement and increased material recovery.
According to Ledjane Oliveira, although the number of recycled panels is still relatively small, the knowledge acquired today will be crucial when the first large-scale solar energy plants begin to replace equipment on a large scale in the coming decades.
The Brazilian photovoltaic energy market continues to expand its share in the national electricity matrix. New plants and distributed systems are installed every year in homes, businesses, and rural properties.
Although the panels have a long lifespan, generally over 25 years, there will come a time when many of these pieces of equipment will need to be replaced.
This scenario will require a robust solar panel recycling structure, capable of handling large volumes of materials.
Therefore, initiatives like those of Scatec are considered important to prepare the production chain and prevent future solar energy waste from becoming an environmental problem.
The results obtained by the company at the Mendubim and Quixeré plants help to gauge the environmental potential of the activity.
According to the released data, the operation allowed:
To carry out the logistics operation, 11 trucks were used to transport the equipment from Rio Grande do Norte to Minas Gerais, where the materials were processed.
Another data highlighted by the company indicates that for every 39 cubic meters of photovoltaic sector waste correctly sent for recycling, approximately 13 tons of CO₂ equivalent are prevented from being emitted into the atmosphere.
One of the main benefits of solar panel recycling is the recovery of materials with significant commercial value.
According to information presented by Scatec, the highest concentration of lead in the modules is located in the metal alloy responsible for the connection between the photovoltaic cells.
This composition contains approximately:
After separating these components, the materials are sent to specialized foundries. This reduces environmental risks and allows them to return to the production cycle.
The recovered lead can be used again in the manufacture of connectors or automotive batteries. Meanwhile, copper and silver have wide industrial applications, adding value to the circular economy process.
In addition to environmental gains, recycling presents a significant economic potential.
According to estimates cited by Scatec, the photovoltaic energy sector estimates that each R$ 1 invested in recycling can generate a return of R$ 3.18.
This result helps change the perception that waste reuse represents only an operational cost. In practice, it can become a source of revenue through the recovery of reusable materials.
The scenario also opens up opportunities for new businesses related to logistics, industrial processing, and commercialization of raw materials from solar panel recycling.
The strategy adopted by the company is aligned with Scatec‘s global sustainability commitments.
According to the company, the goal is to achieve net zero carbon emissions by 2040. In this context, expanding recycling processes plays an important role in reducing environmental impacts throughout the entire production chain.
The initiative also demonstrates that the growth of solar energy can occur increasingly integrated with the principles of the circular economy, combining clean energy generation with efficient resource reuse.
The advancement announced by Scatec shows that solar panel recycling is moving from a complementary activity to a strategic role within the sector.
The ability to reuse 100% of the materials present in damaged modules demonstrates that the circular economy can generate environmental and financial benefits simultaneously. The recovery of glass, metals, plastics, rubbers, and high-value components reduces waste, prevents emissions, and creates new business opportunities.
With the continuous expansion of photovoltaic energy in Brazil, initiatives like this tend to gain increasing relevance. Besides strengthening the sustainability of solar energy, they help build a more efficient production chain, prepared for the challenges of the coming decades and capable of transforming waste into valuable resources.
Hilton Fonseca Liborio is a writer with experience in digital content production and SEO skills. He specializes in creating optimized content for diverse audiences and platforms, aiming to combine quality, relevance, and results. His areas of expertise include the Automotive Industry, Technology, Careers, Renewable Energies, Mining, and other topics.
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Avangrid Completes Construction Of 166 Mwdc Solar Project In Oregon – megaproject.com

Avangrid has completed construction of the 166 MWdc/120 MWac Tower Solar project in Morrow County, Oregon and has connected the facility to the regional electricity grid. Commercial operations for the project are expected to begin in summer 2026. The project features more than 250,000 solar panels assembled by SEG Solar at its Houston manufacturing facility.
Once fully commissioned, the project will supply clean electricity to Portland General Electric through its Green Future Impact program and support QTS operations in the region. The project created approximately 200 construction jobs and is expected to contribute around $20 million in PILOT and property tax payments to the local community.
In May 2026, Avangrid signed a long-term power purchase agreement (PPA) with Puget Sound Energy (PSE) for the Big Horn I wind project located in Klickitat County, Washington. The project will have a nameplate capacity of 199.5 MW, enough to supply electricity to around 70,000 homes annually. The project, developed by Avangrid in 2006, is expected to commence commercial operations in 2028 following its redevelopment.
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Solar streetlights with AI could solve data center energy demand – pv magazine Global

UK-headquartered company ConFlow’s iLamps are fitted with a 600 W circular solar panel, two lithium-ion batteries and a Nvidia computer processing chip. Everything is remotely monitored via an app, and all the system hardware is housed inside the lamppost.
The idea is to leverage the streetlamps to create a large virtual power plant (VPP) network capable of absorbing the demand placed on the world’s electricity grids by big data centers.
VPP network
Deployment is already happening in Nigeria, the UK and in the United States, and Fitzpatrick told pv magazine that ConFlow is targeting half a million streetlamp units in the pipeline by next year. But the streetlamp isn’t really the product.
“We’re building a platform for AI for power, comms and data. The iLamp is just the node that we put all of that through,” Fitzpatrick explained.
“A lot of people say we can’t compete with a large-scale data center by putting GPUs into streetlights. That’s true. But we don’t have to cool ours so we’re already more efficient and the compute is more efficient, and it costs us and the environment less.”
He added that the streetlamp VPP network provides a sort of intermediary between the larger data centers doing higher compute learning tasks. “The iLamp brings the data center closer to your phone for lower demand tasks like asking ChatGPT a question,” said Fitzpatrick. This is known as inference and the latency is less than what’s required for learning-based tasks.
Business model
Local authorities and governments pay for the compute-per-hour and for the power the lamps provide. At the moment, ConFlow charges 49c per compute hour, which Fitzpatrick claimed is “really cheap for inference compute for AI.” Each iLamp generates about $4,500 per annum.
“We also charge a little bit for the power because we want to create green utilities in every location,” the CEO added. “If there’s 50,000 iLamps in a state, we create a green utility and we sell the power to the government at a green kilowatt hour of power but at a very low rate. The green utility is far more beneficial to the end user than it is to us… it gives them loads of benefits like carbon credits.”
ConFlow is in talks with local authorities to deploy the lamps in the UK, as well as in Kazakhstan, Sri Lanka, India, Kenya, Nigeria, and the United States. Licensing is available in most countries already. The biggest problem is the red tape involved, and Fitzpatrick said the company has gravitated towards early deployment in countries with less bureaucratic restrictions, like Nigeria.
Intelligence services
The type of inference-based intelligence data the lamps provide depends on the user’s requirements. The state picks what services they want ranging from weather data, autonomous vehicle connections, traffic data, building security, sports performance, and even gunshot detection, all delivered via an AI powered camera inside the lamp at head height.
“From speed spotting to gunshot prevention to sports, we’re doing 80 applications like that, because we can teach the camera literally anything. We’re working with a local drama department to help us teach the camera,” said Fitzpatrick.
Panic buttons can also be installed in the iLamps to alert emergency services. Fitzpatrick is not too concerned about the possibility of people stealing computer chips or solar panels from the lamps. As he said, the solar is built into the lamp and anyone hoping to steal it would need an angle grinder and to disable the camera. If the GPU is removed from the lamp, it is automatically fried and therefore useless. “Nobody can steal 50,000 lamps”, said Fitzpatrick.
He also defended the surveillance aspect of the service, claiming ConFlow provides a service that governments want to buy.

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De Soto solar farm project's status remains hazy three years after zoning approval – The Business Journals

De Soto solar farm project’s status remains hazy three years after zoning approval  The Business Journals
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Why sheep are grazing under China’s Tibetan solar panels and helping local farmers earn more – The Times of India

The TOI Science Desk stands as an inquisitive team of journalists, ceaselessly delving into the realms of discovery to curate a captivating collection of news, features, and articles from the vast and ever-evolving world of science for the readers of The Times of India. Consider us your scientific companion, delivering a daily dose of wonder and enlightenment. Whether it's the intricacies of genetic engineering, the marvels of space exploration, or the latest in artificial intelligence, the TOI Science Desk ensures you stay connected to the pulse of the scientific world. At the TOI Science Desk, we are not just reporters; we are storytellers of scientific narratives. We are committed to demystifying the intricacies of science, making it accessible and engaging for readers of all backgrounds. Join us as we craft knowledge with precision and passion, bringing you on a journey where the mysteries of the universe unfold with every word.

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Waushara County solar farm sparks concerns over property, land – NBC26

OSHKOSH (NBC 26) — A planned solar farm in Waushara County is drawing concern from residents and farmers who worry about falling property values and potential land contamination.
Plainfield resident Nick Derks said the 1,000-acre installation, which spans the towns of Oasis, Hancock, Plainfield, and Deerfield, is a significant issue for the community.
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Derks is urging neighbors to attend an upcoming public meeting to make their voices heard.
“Now we have a meeting coming up next Tuesday, and I would just like everybody in the Western Waushara County area to be there if they’re at all concerned about the future of the land,” Derks said.
The meeting will be held at the Plainfield Municipal Building on West Clark Street in Plainfield.
The project has several participating local family farmers. According to Ranger Power, the company behind the project, solar energy provides a stable revenue source to help farmers hedge against challenges including an unpredictable crop market and high fuel costs.
Not all farmers support the project, however. Waushara farmer Kurt Kamin raised concerns about pollutants potentially contaminating the land and affecting its long-term viability.
“The canning companies have stricter and stricter rules. There’s an issue and they get that stuff. If something ends up in the groundwater, how many acres does that affect? You know, is this ground ever going to be viable again? I don’t think it is,” Kamin said.
Dawn Break Solar, the developer involved in the project, states that its panels do not contain PFAS or GenX, two dangerous chemicals, and emphasizes solar energy’s positive impact on reducing greenhouse gas emissions. The company also notes that solar panels do not use significant amounts of water during operation, keeping water available for farming and other activities.
Dawn Break Solar is scheduled to begin construction in early 2027, with the project becoming operational in 2028. The project is privately funded and will not use taxpayer dollars.
This story was reported on-air by a journalist and has been converted to this platform with the assistance of AI. Our editorial team verifies all reporting on all platforms for fairness and accuracy.
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The best performing utility-scale PV asset in Australia – pv magazine Global

From pv magazine Australia
New data from global energy consultancy Rystad Energy shows that all Australian large-scale solar power plants generated 1,730 GWh of clean energy last month, up 21% from the 1,435 GWh produced in April 2025 with Queensland home to three of the top five best-performing utility PV assets for the month.
The 204 MW Edenvale Solar Park, co-owned by Japanese companies Eneos and Sojitz, was ranked Australia’s top-performing big PV facility for the month with Rystad Senior Analyst David Dixon noting the power plant had delivered an average AC capacity factor (CF) of 33.1% for the month.
Greek energy company Metka’s 82 MW Moura Solar Farm ranked second for the month with the central Queensland facility delivering an average capacity factor of 32.8 %.
Stage 2 of Acen Australia’s 400 MW Stubbo solar project in New South Wales (NSW) was ranked third with a capacity factor of 32.6 % while the first stage of that project was listed in fifth place. Neoen’s 460 MW Western Downs solar farm in Queensland was ranked fourth.

Dixon said all Australian utility-scale PV and wind assets generated 4.7 TWh of clean energy last month, up 24% from 3.8 TWh in April 2025.
At a state level Queensland was in top spot for utility solar and wind generation at 1,256 GWh with 678 GWh from utility PV and 578 GWh from wind.
The top wind assets for the month were the Granville Harbor and Cattle Hill wind farms in Tasmania with the Kennedy Energy wind farm in Queensland third.
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Thursday, June 18, 2026
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Entries open in seven categories: Modules, Inverters, BoS, BESS, Manufacturing, Sustainability, Projects.
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BREAKING NEWS: CHG EnSOL Launches AIDC PV Modules – PA Media

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Solar recycling cannot wait. The industry must act now on the PV end-of-life challenge – PV Tech

The solar industry stands at a critical juncture. As billions of panels installed over the past two decades approach the end of their lifespans, the sector faces the unprecedented challenge of what to do with the tens of millions of tons of decommissioned photovoltaic modules expected to flood the market in the coming years, with volumes projected to reach staggering levels by 2050.
According to Sonia Dunlop, CEO of the Global Solar Council (GSC), the message is clear: the time to address solar recycling is now.

“Solar recycling has to be dealt with today, for the solar panels being installed now,” Dunlop emphasises, in response to questions from PV Tech Premium. “Due to our nature as a low-cost form of electronics with an extremely long lifespan—sometimes 30+ years—recycling has to be paid for at the point of purchase rather than at the point of disposal.”
This disconnect between installation and decommissioning timelines creates a fundamental challenge. The funds needed to recycle panels decades from now must be collected and carefully invested today, requiring government mandates and industry delivery mechanisms that can span generations.
While some regions have made significant progress, the global recycling infrastructure remains woefully unprepared for the coming wave of decommissioned panels. The European Union has led the charge, mandating solar recycling since 2012, and currently holds over 70% of the global recycling market, according to Dunlop. However, as solar deployment accelerates worldwide, this concentration presents a problem.
“Solar deployment is accelerating, and we need to diversify the recycling industry beyond Europe,” Dunlop notes.
Some of that diversification has begun. Beyond Europe, China, Australia, Japan and South Africa are notable for having national-level policies to regulate PV waste, while a few US states have also instituted PV waste regulations of varying degrees of stringency. At the same time, extensive research efforts are underway, and new innovations are emerging for recovering the most valuable materials from PV modules.
Yet these initiatives remain scattered across a global industry that installed record-breaking capacity in recent years, and nowhere near the necessary industrial capacity is in place to handle the likely waste volumes that will emerge, or to maximise the economic value of the recoverable materials PV modules contain.
Central to addressing the recycling challenge is establishing the right financial mechanisms. Dunlop strongly advocates for what the industry calls an “advanced recycling fee”—a pay-as-you-buy approach that embeds the nominal cost of recycling into the upfront purchase price.
“It protects the consumer from inflated higher costs when the panel reaches the end of its life,” she explains. This model has proven particularly effective in Europe over the past decade, but much of the world has yet to implement similar measures.
The approach faces complications, however. Solar panels are often classified alongside electronic and electrical equipment such as laptops and mobile phones—a categorisation that Dunlop considers a misfit. Panels have much longer lifespans and typically much lower purchase prices per kilogram than consumer electronics. Moreover, many panels installed 25 years ago were manufactured by companies that no longer exist, casualties of the cutthroat nature of solar manufacturing.
“What we really need is for governments to design solar PV-specific—and indeed battery storage-specific—recycling schemes,” Dunlop argues, highlighting the need for tailored regulatory frameworks that account for the unique characteristics of solar technology.
Creating a circular economy for solar panels requires coordinated action from both public and private sectors. Dunlop is clear that if the industry wants to roll out solar at speed and scale, a “both-and approach” is essential.
Major original equipment manufacturers have already begun investing heavily in recycling, either through proprietary technology or partnerships with specialist firms. In the US, Canadian Solar and Qcells have agreements with SOLARCYCLE, for example, while PV Cycle serves numerous companies globally. These private sector initiatives demonstrate industry recognition of the challenge ahead.
However, private investment alone cannot solve the problem. Government mandates and public sector support remain crucial for establishing the comprehensive, well-organised and well-financed global recycling system the industry requires.
The ultimate goal is ambitious but achievable: developing a fully circular lifecycle for photovoltaic equipment. Dunlop cites estimates she has seen suggesting that solar PV and battery energy storage systems could become entirely circular industries, requiring no new mining by 2040. The potential is clear—one old PV module can theoretically produce enough material for ten new ones, Dunlop points out.
“Whether we actually manage to deliver this depends on a well-organised and well-financed global recycling system, which has to be government-mandated,” she states, emphasising the critical role of policy in realising this vision.
Several obstacles currently prevent the industry from achieving circularity at scale. Cost remains a significant factor. While prices have declined, solar recycling can still appear more expensive than landfill disposal in some countries, partly because recovered raw materials are not being resold for their true value. However, innovative companies are developing more efficient recycling technologies daily, and costs are projected to continue falling significantly.
Regulatory gaps present another challenge. In many countries, solar recycling regulations are still catching up to deployment. Australia, Japan, China and India are beginning to examine how they can address the challenge at scale, but comprehensive frameworks are still under development.
The nascent state of the recycling industry itself poses difficulties. A sector striving to catch up to the scale and speed of well-established and rapidly growing solar manufacturing faces inherent growing pains.
The EU’s Waste Electrical and Electronic Equipment (WEEE) Directive stands as a clear blueprint for effective policy. Any region stands to benefit from a more robust solar recycling industry and regulatory environment, but those already delivering deployment at scale have the most immediate need.
Beyond policy, the GSC is working to facilitate practical collaboration across the value chain. The organisation has served as a link between members and specialist recyclers such as PV Cycle, which offers collective and tailor-made waste management and legal compliance services globally. In Nigeria, CleanCyclers represents an innovative approach to expanding PV recycling services in emerging markets, Dunlop says.
Dunlop emphasises the importance of due diligence at both ends of the product lifecycle. The industry is working to engage buyers to “check before you buy” and developers to “check before you throw”. Investors and local authorities are already asking questions about recycling before investing in and permitting utility-scale sites.
Looking ahead, the GSC is considering making recycling part of the Solar Stewardship Initiative buyers’ guidelines. Such integration would formalise recycling considerations into investment and procurement decisions across the industry.
The GSC has discussed the recycling challenge with the International Renewable Energy Agency (IRENA) and hopes to eventually create a dedicated Recycling Workstream. International standards and harmonisation will play crucial roles in scaling solutions globally.
As the solar industry continues its remarkable growth trajectory, the recycling challenge looms larger with each passing year. The panels being installed today will need proper end-of-life management decades from now, making current action imperative. With the right combination of government mandates, industry investment, technological innovation and international cooperation, the vision of a fully circular solar industry can move from aspiration to reality.
The question is not whether the industry can rise to meet this challenge, but whether it will act with sufficient speed and coordination to build the infrastructure needed before the coming decommissioning wave breaks.
The latest issue of our journal PV Tech Power leads with a special report exploring the PV end-of-life challenge, from project decommissioning through to recycling and the pathway towards a circular PV supply chain. To read our coverage in full, click here (subscription required).

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Solar power for state’s biggest water project come with hefty price tag – for users – SJV Water

Water contractors can expect to pay between 1% to 3% more for the energy it takes to bring supplies down the state through California’s largest project thanks to just one renewable energy project that came online recently in Kern County – the Pastoria Solar Project.
And that’s just the beginning.
When the Department of Water Resources (DWR) brings on enough renewable energy projects to fully power the State Water Project (SWP), contractors can expect their costs to increase another 10% to 20%, according to a presentation at the May 20 California Water Commission meeting by DWR Manager of Power Operations Jorge Quintero.
Quintero said 45% of the power needed for the SWP is currently coming from renewables, including the project’s own hydro electricity. The department has contracted for renewable projects to provide another 11% of its power needs. 
That means DWR has to find renewable energy projects for the remaining 44% of its power needs.
Quintero estimated it would cost between $35 million and $40 million a year to fill that remaining 44% need, increasing energy costs to contractors by another 10% to 20%.
And it has to happen fast per Senate Bill 1203, which mandates state agencies achieve net-zero greenhouse gas emissions by 2035 – just nine years from now. 
“I’d be lying if I said this wasn’t a big concern,” said Jonathan Young, energy manager for the State Water Contractors association. “We didn’t oppose the 2035 mandate but we did voice our concerns.”
Because DWR is using long-term power purchase agreements to lock in how much it pays for the power, that does give contractors a greater degree of cost certainty, Young said.
“Anything that adds certainty, adds value,” Young said. 
DWR declined to say how much it’s paying for power produced by the 100-megawatt Pastoria Solar Project, which came online in late April. The state keeps that information under wraps for three years in order not to undermine future contract negotiations, according to a DWR spokesperson.
The spokesperson would only say that DWR’s 20-year purchase agreement for Pastoria’s solar power is “competitive,” but more than $1 per megawatt hour, as had been reported in other media.
Time and money will be tight to meet SB 1203’s mandates.
The Pastoria Solar Project, DWR’s largest solar investment so far, took four or five years from the first request-for-proposal to flipping the switch, according to John Yarbrough, Deputy Director of the SWP.
The department needs another 400 megawatts – or four more Pastoria facilities – to fill its remaining power needs. 
In the meantime, DWR and contractors are trying to control power demands, and costs, by operating the SWP in a more flexible manner depending on other needs on the grid. And many contractors are installing their own solar facilities, Young said during the May 20 California Water Commission meeting.
He told SJV Water that power is just one of many cost concerns for contractors including combatting invasive golden mussels and subsidence (land sinking) beneath the California Aqueduct.
“And we didn’t even get into SGMA,” he said referring to the Sustainable Groundwater Management Act, which mandates farmers bring over pumped aquifers into balance by 2040.
Those, and other, costs were cited recently as several Kern County agricultural water districts have significantly reduced their participation levels in funding the planning and pre-construction phase of the Delta Conveyance Project, a tunnel that would bring Sacramento River water beneath the ecologically sensitive Sacramento-San Joaquin Delta to be exported south.
The SWP is the state’s largest single electricity consumer, using between 2.5 million and 9.5 million megawatt hours a year, depending on how much water it’s moving. It moves water more than 700 miles from northern to southern California, hoisting it 2,882 feet up and over the Tehachapi mountains in Kern County.
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Global battery additions reached 108 GW in 2025, according to IEA – pv magazine USA

Falling costs and greater demand led to a 40% uplift in battery additions in 2025, according to the latest IEA data. This was driven by major acceleration in utility scale deployment, which accounted for 87 GW of the 108 GW added in 2025.
Around 24 GW of utility-scale BESS additions in 2025 were co-located with renewables, on par with the previous year. This means share of capacity for co-located renewables fell just below 30%, which the IEA attributed to market reforms in China in early 2025 which removed broad co-location mandates.
Key growth markets identified by the IEA included Australia, where battery capacity additions surged to nearly 8 GW, almost nine times higher than the previous year.
Utility-scale installations in Australia were up from less than 1 GW in 2024 to around 4.2 GW in 2025, while behind-the-meter additions increased from roughly 0.2 GW to about 3.4 GW, supported by state- and federal-level incentives. It means battery storage now accounts for around 18% of installed dispatchable capacity in Australia, ahead of China (7%), the United States (5%) and Europe (4%).
China continues to dominate BESS additions in absolute terms. Just over 63 GW of new battery capacity was added in China in 2025, one-third more than in 2024. Utility-scale scale installations accounted for 55 GW of the total, with the IEA recording about 8 GW of behind-the-meter additions.
In the United States, 19 GW of battery storage was split across more than 16 GW of utility-scale BESS and nearly 3 GW behind the meter.
Utility-scale BESS may have accounted for lion’s share of new capacity additions but global behind-the-meter installations accelerated also accelerated in 2025. The IEA noted markets with high retail electricity prices and supportive policy frameworks saw increased deployment.
The dramatic fall in costs for battery storage – down by more than 90% between 2010 and 2025 – has supported deployment growth according to the IEA, while the growing proportion of renewables in the global energy generation mix has also increased demand.
IEA noted that early battery projects were concentrated in “lucrative but relatively shallow ancillary service markets” but business models for BESS have changed. Energy arbitrage – storing energy when prices are low, to sell when they are high – has become the dominant application. The IEA estimates the share of projects engaged in this kind of energy shifting has increased from around 40% in 2015 to more than 90% in 2025.
Battery storage durations have also risen as demand for energy shifting has grown. The average duration of projects commissioned rose to three houses in 2025, up from around two hours in 2023.
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India Posts Record 44.6 GW Solar Addition In FY26 Despite Rising Oversupply Risks – BW Businessworld

India Posts Record 44.6 GW Solar Addition In FY26 Despite Rising Oversupply Risks  BW Businessworld
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Terra Energy launches solar-plus-battery subscription plan for homeowners in the Houston, Texas area – pv magazine USA

Florida-based solar-as-a-subscription startup Terra Energy has officially launched its new TerraOne plan, a 36-month agreement for homeowners in the CenterPoint and deregulated service areas of greater Houston, Texas. 
Under the plan, Terra Energy installs a rooftop solar installation and 40 kWh battery at the homeowner’s premises, and sells the electricity to the homeowner over the subscription term. 
In its announcement of the program, Terra said the cost to the homeowner for the subscription can be as low as $0.06/kWh before delivery charges, based on usage, system design, and program eligibility.
The low prices are a result of Terra’s Texas business model, backed by the company’s first virtual power plant (VPP). Similar to VPP programs from other Texas solar and battery providers, Terra Energy will aggregate the batteries it installs at customer homes to provide energy, capacity, and ancillary services to grid operators, creating a source of revenue in addition to subscription fees.
In addition to income from its VPP operations, the company says its unique business model and vertical integration of sales, warehousing and operations allows it to keep overhead costs low.
At the end of the initial term, the homeowner can choose to continue the subscription or cancel. Terra Energy is counting that most of its customers will choose the former, and the company says it has data to back that up.
In April, Terra CEO and founder Jaime Martinez told pv magazine USA the company had retained 98% of its customers beyond the 3-year mark in Mexico, its original market. 
At the time, subscriptions for Terra’s first customers in Florida were just beginning to reach 36 months, and Martinez said that 100% of those customers retained their subscription to the company’s service. 
Since that time, the company has been testing its Texas offering in a pilot program, which has now become TerraOne. 
“We’re proud to be launching our decentralized power plant solution in Texas to help make it simple for Houston homeowners to lower their electricity cost while keeping the lights always on,” said Martinez in a statement. “For two decades, going solar meant needing to write a big check or take out a 20-plus-year loan. We’re lowering the barriers to entry for homeowners with TerraOne’s short-term subscription.”
Also in April, Martinez said his company planned to offer its service in additional Texas regions and expected to expand to California sometime later in the year, but the company has not made any further announcements about those plans.
Homeowners interested in learning more about the company’s Texas offering can visit www.terraenergy.io/texas.
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How TCL Photovoltaic Technology Redesigned Its Business with AI at the Core – Bain & Company

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Winning with AI
Facing rapid growth, the company built AI capabilities to balance scale, efficiency, and risk.
Rapid growth and rising operational complexity pushed TCL Photovoltaic Technology (TCL PV Tech), a new energy company within TCL Corporation, to embrace artificial intelligence. Between 2022 and 2025, the company’s revenue surged from roughly RMB 600 million to RMB 20 billion. At the same time, highly dispersed projects, more intricate processes, and shifting policy environments heightened the demand for efficiency, consistency, and risk management. 
AI as a foundational capability—not just a tech initiative—answered TCL PV Tech’s question: How can we reduce costs, improve efficiency, and ensure high-quality scale growth? With Bain’s guidance, the company zeroed in on a set of high-impact AI use cases at the intersection of transformation potential and capability maturity. 
auditing process cost reduction
Rather than focus on standalone pilots, TCL PV Tech prioritized solving pain points—those critical yet constrained processes that would hinder sustainable growth. In collaboration with Bain, the organization introduced:
•    Intelligent inspection, which reduced reliance on human judgment for processes like site survey and final grid connection
•    Real-time analysis and forecasting of power markets to boost efficiency and accuracy
•    AI-powered recognition to continuously monitor power stations and flag potential faults early, improving the speed and accuracy of maintenance responses
TCL PV Tech’s dedicated AI service group continues to scale AI across the business, embedding it in core capabilities to balance efficiency gains with risk control as the company grows. But beyond the tactical wins, Bain helped the company adopt an end-to-end transformation mindset. Faced with a highly uncertain business climate, the company built a sustained capability through process and organizational change. In that context, the organization’s AI-enabled transformation was not a one-time rollout but a continuous journey of iteration and refinement.
First, major, immediate pain points need to be addressed. Second, tangible results must be [achieved]. Visible success helps more colleagues recognize the real benefits AI brings and motivates them to go further.
Ms. Ricky He, General Manager, TCL Photovoltaic Technology

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Sungrow Renewables launches solar module integrating AI, power electronics – pv magazine Global

Sungrow Renewables, a division of Chinese inverter and storage system manufacturer Sungrow, has launched its first solar module at on June 1 at its 2026 smart technology conference in Shanghai.
Dubbed Pulson, the new product is described as a smart PV module designed to function as an active terminal within photovoltaic power plants rather than as a passive power-generating component.
The panel is based on what Sungrow Renewables calls a “5S” architecture comprising self-diagnosis, self-rapid shutdown (RSD), self-cleaning, self-cooling and self-logging functions. It also integrates power electronics, advanced materials and artificial intelligence algorithms to improve safety, energy yield and lifecycle management in PV plants.
According to Sungrow Renewables, the self-diagnosis function relies on a module control box with embedded chips that collect voltage, current, temperature and other operating data from individual modules. Moreover, AI-based analysis enables module-level fault detection and localization, allowing operators to move beyond plant-level monitoring.
The self-RSD function provides both module-level and system-level protection, which means faulty modules can be isolated to limit the impact on the rest of a string. In emergency situations, the system can also reduce site-wide DC voltage to a human-safe level within 25 seconds, according to the manufacturer.
The module also incorporates self-cleaning and self-cooling technologies. Sungrow said nano-hydrophilic surface treatment and its proprietary “Silver Ant” cooling technology help reduce power losses caused by dust accumulation and elevated operating temperatures. The company claimsthe two features can increase energy generation by about 6%.
The self-logging function assigns each module a digital record, or “electronic passport,” containing carbon footprint data, health status, operating logs and other lifecycle information. Sungrow Renewables said the feature is intended to support operation and maintenance activities, asset evaluation and long-term plant management.
During the event, TÜV SÜD issued what Sungrow Renewables described as the industry’s first certificate for a high-efficiency smart PV module. The company also said Pulson is the first product to achieve the L2 “active safety intelligence” level under the smart module classification framework proposed in the new white paper. The framework categorizes smart PV modules into four levels, ranging from L1 sensing and optimization capabilities to L4 autonomous decision-making.
The module will initially be deployed in PV plants developed by Sungrow Renewables. Chairman Zhang Xucheng said the product emerged from a development cycle involving “power plant application, pain-point identification, technology accumulation, hardware iteration and power plant feedback.”
More technical details about the new product were not revealed.
Sungrow Renewables is the renewable energy project development arm of Sungrow. The company develops, invests in, designs, builds and operates PV, wind, energy storage and other renewable energy projects. It said it has developed and constructed a cumulative 59 GW of renewable energy projects across more than 17 countries and regions.

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Solar Industry Searches for Causes of Increased Breakage, Defects – The Energy Mix

/Wikimedia Commons
Inspections are revealing growing failures in modern glass solar panels as manufacturers respond to increasing demand for larger, thinner, and lighter panels.
“Broken glass seems to be more common than before,” the U.S. National Renewable Energy Laboratory (NREL), since renamed and refocused by the Trump administration as the Department of Energy’s National Laboratory of the Rockies, wrote [pdf] in a 2024 report. “In the past few years, our team has found power plants around the world where [solar] module glass has broken with no obvious cause.”
“We call this type of breakage spontaneous.”
The report identifies “big floppy modules” as the type of panel most prone to breakage.
These glass solar panels have decreased in thickness from 3.2 to 2 millimetres, but also grown in size from around two to three square metres to cover larger areas—and are usually installed with low-cost mounts.

The report finds that a combination of factors could lead to breakage. “We’re working on tests and characterization methods that can detect modules vulnerable to breakage at low loads,” the authors write.
Manufacturing errors have been identified by global quality inspection company Intertek CEA. They find cold soldering, grid breaks, and scratched cells in the manufacturing process among the top issues in 11 countries, with the U.S. recording the highest number of deficiencies. The trends are seen commonly in manufacturers that are ramping up production—rather than mature producers—most significantly in the U.S. as “capacity expansion exposes early-stage execution risks,” the Intertek report states [pdf].
Chinese manufacturers observed just over 20% minor or critical issues in the ramp-up process, while the U.S. sits at nearly 40%.
North American solar manufacturers stand to learn a thing or two from manufacturers in China, Mike Andrade, executive chair of Toronto-based Morgan Solar, told The Energy Mix, adding that the Chinese have been making them far longer than the U.S.
Manufacturers must now meet a need to increase the surface area of panels for increased energy output, all while keeping weight down to reduce installation costs.
“The labour associated with the construction of a solar field is now a bigger portion of the cost of the solar field,” Andrade said. So the trend is shifting toward bigger, more powerful panels that need less labour to install.
Solar manufacturing moves quickly as technology evolves, producing hundreds of thousands of parts and pieces compared to conventional energy infrastructure that can take years to complete and is not subject to the same external stressors as solar.
That list includes weather events, like heavy snow that puts stain on the panels, or human error if a panel wasn’t connected properly into the frame/ And yet, Andrade said, solar is on track to becoming more reliable than their conventional counterparts.
“[Solar is] incredibly reliable as a baseline, and is going to be far more reliable than any other electricity generation technology that would be compared to them,” he said. “There’s no moving parts, you don’t have any pumps or turbines or anything that lasts 30 years.”
Glass breakage is calling into question the longevity of panels, but Andrade said the problems are not unsolvable as the industry works to identify the root causes of breakages.
“If it’s a pervasive manufacturing problem across all thin glass things, that’s going to take longer,” he said. But fixing or changing clamps that mount thinner glass panels would be an easier solution.
“Electronic products get better by breaking—you do a root-cause analysis on figuring out why it broke, fix that thing, then do it again, and again, and again,” he said.
“Next thing you know, you’ve got a super-reliable product, and that’s why I’m very confident the industry will figure this out.”

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/Wikimedia Commons
Inspections are revealing growing failures in modern glass solar panels as manufacturers respond to increasing demand for larger, thinner, and lighter panels.
“Broken glass seems to be more common than before,” the U.S. National Renewable Energy Laboratory (NREL), since renamed and refocused by the Trump administration as the Department of Energy’s National Laboratory of the Rockies, wrote [pdf] in a 2024 report. “In the past few years, our team has found power plants around the world where [solar] module glass has broken with no obvious cause.”
“We call this type of breakage spontaneous.”
The report identifies “big floppy modules” as the type of panel most prone to breakage.
These glass solar panels have decreased in thickness from 3.2 to 2 millimetres, but also grown in size from around two to three square metres to cover larger areas—and are usually installed with low-cost mounts.

The report finds that a combination of factors could lead to breakage. “We’re working on tests and characterization methods that can detect modules vulnerable to breakage at low loads,” the authors write.
Manufacturing errors have been identified by global quality inspection company Intertek CEA. They find cold soldering, grid breaks, and scratched cells in the manufacturing process among the top issues in 11 countries, with the U.S. recording the highest number of deficiencies. The trends are seen commonly in manufacturers that are ramping up production—rather than mature producers—most significantly in the U.S. as “capacity expansion exposes early-stage execution risks,” the Intertek report states [pdf].
Chinese manufacturers observed just over 20% minor or critical issues in the ramp-up process, while the U.S. sits at nearly 40%.
North American solar manufacturers stand to learn a thing or two from manufacturers in China, Mike Andrade, executive chair of Toronto-based Morgan Solar, told The Energy Mix, adding that the Chinese have been making them far longer than the U.S.
Manufacturers must now meet a need to increase the surface area of panels for increased energy output, all while keeping weight down to reduce installation costs.
“The labour associated with the construction of a solar field is now a bigger portion of the cost of the solar field,” Andrade said. So the trend is shifting toward bigger, more powerful panels that need less labour to install.
Solar manufacturing moves quickly as technology evolves, producing hundreds of thousands of parts and pieces compared to conventional energy infrastructure that can take years to complete and is not subject to the same external stressors as solar.
That list includes weather events, like heavy snow that puts stain on the panels, or human error if a panel wasn’t connected properly into the frame/ And yet, Andrade said, solar is on track to becoming more reliable than their conventional counterparts.
“[Solar is] incredibly reliable as a baseline, and is going to be far more reliable than any other electricity generation technology that would be compared to them,” he said. “There’s no moving parts, you don’t have any pumps or turbines or anything that lasts 30 years.”
Glass breakage is calling into question the longevity of panels, but Andrade said the problems are not unsolvable as the industry works to identify the root causes of breakages.
“If it’s a pervasive manufacturing problem across all thin glass things, that’s going to take longer,” he said. But fixing or changing clamps that mount thinner glass panels would be an easier solution.
“Electronic products get better by breaking—you do a root-cause analysis on figuring out why it broke, fix that thing, then do it again, and again, and again,” he said.
“Next thing you know, you’ve got a super-reliable product, and that’s why I’m very confident the industry will figure this out.”

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France adds 1.5 GW of solar capacity in the first quarter of 2026 – Review Energy

France connected 1.5 GW of new solar photovoltaic capacity during the first quarter of 2026, maintaining a pace of deployment similar to that recorded in the same period last year, according to the latest figures published by the Ministry for Ecological Transition’s Statistical Data and Studies Department (SDES).
The new additions brought the country’s cumulative solar PV capacity to 33.0 GW as of March 31, 2026, spread across more than 1.37 million installations.
According to the report, 1,495 MW of new solar capacity were connected between January and March, compared with 1,571 MW during the first quarter of 2025.
Source: SDES
 
While small-scale systems continued to dominate in terms of the number of installations, larger projects accounted for a significant share of newly added capacity.
Installations above 500 kW represented 30% of the new capacity connected during the quarter, despite accounting for only 0.3% of new grid connections. Meanwhile, systems below 9 kW made up 74% of newly connected installations but contributed just 7% of the newly installed capacity.
During the first quarter of 2026, gross photovoltaic electricity generation reached 6.6 TWh in mainland France, compared with 5.9 TWh in the same period of 2025, representing a year-on-year increase of 13%. Excluding self-consumed electricity, solar generation totaled 6.2 TWh and accounted for 4.6% of electricity consumption in mainland France, 0.7 percentage points higher than in the first quarter of 2025.
Source: SDES
 
France’s solar development pipeline remains strong. As of the end of March, projects awaiting grid connection totaled 36.9 GW, including 8.3 GW with signed grid connection agreements.
Regionally, Nouvelle-Aquitaine, Occitanie and Auvergne-Rhône-Alpes accounted for 50% of France’s installed solar capacity and 46% of the new capacity connected during the first quarter of 2026.
The report also highlights the continued growth of self-consumption. By the end of the quarter, 62% of photovoltaic installations in mainland France were fully or partially self-consuming their electricity production, representing 19% of the country’s installed solar capacity
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Australian researchers accelerate silicon wafer recycling using AI, robotics – pv magazine Global

From pv magazine Australia
Researchers from the University of New England and the Australian Institute for Strategic Artificial Intelligence are using artificial intelligence (AI) and supercomputers to develop methods for recycling silicon wafers with minimal contamination.
Silicon, currently the most valuable component in a solar panel, cannot be recycled to its original purity because of the substrates used to prevent degradation during a panel’s operating life. The researchers are using AI-driven quantum chemical simulations to identify molecular solvent formulations capable of cleanly separating silicon from wafers. The simulations evaluate chemical efficacy, identify new pathways, and guide subsequent computations.
UNE computational chemist Kasimir Gregory said it is now possible to predict how panels can be disassembled at the molecular level. “These technologies are giving an exponential boost to the process of scientific discovery,” Gregory said.
Research colleague and ISA director Amir Karton said the team has created an efficient feedback loop between AI-driven predictions and experimental observations. “This allows us to actively steer the experimental discovery of optimal recycling pathways at unprecedented speeds,” Karton said.
The project is supported by a AUD 2.7 million ($1.9 million) automated robotic laboratory funded by the Australian Research Council and shared by several institutions. The laboratory can physically produce the solvents and materials identified through AI-driven simulations.
It can then test them in real-world experiments powered by agentic AI – autonomous AI agents capable of independently running experiments and managing workflows with minimal human intervention. The agents operate continuously, reducing development times from years to months.
The research has attracted support from Philippines-headquartered renewable energy developer ACEN Australia, which is supplying panels from its 720 MW New England Solar Project in the New South Wales Northern Tablelands.
Managing Director David Pollington said the company’s recently commissioned Stubbo Solar Project is the first large-scale project to achieve Circular PV Alliance certification, adding that the UNE research is “an important step in further improving the effectiveness and efficiencies of recycling processes.”
“We are also committed to supporting the regions in which we operate, so we’re extra excited that this industry-leading research is happening right here in the New England,” Pollington said.
Australia’s cumulative volume of end-of-life solar panels is expected to reach one million tonnes by 2035, with the material value of those panels projected to exceed AUD 1 billion.
“It is not practical to ship thousands of tonnes of solar waste across the country for processing,” Amir Karton said. “The university has a strategic focus on ensuring the renewables rollout here provides maximum benefit to the region while it benefits the nation.”
On May 7, 2026, UNE launched the Institute for Strategic Artificial Intelligence, operating within LabNext70, Australia’s first purpose-built AI research and delivery hub focused on education.
The institute is co-directed by Associate Professor Aaron Driver, UNE’s chief AI officer and director of LabNext70. It will work across fields including materials science, education transformation, geopolitical analysis, and strategic decision-making.
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JinkoSolar launches 700W TOPCon module and new utility-scale storage system – PV Tech

Chinese solar manufacturer JinkoSolar has launched its 700W Tiger Neo 5.0 module series and a SunTera G5 energy storage system, alongside a portfolio of application-specific PV modules including the Dust-Resistant, AIDC, Safety Guard, Anti-Glare, Light Diamond, and Mount Tai products.
The products were launched during an event held in Shanghai headed by the company’s newly appointed CEO, Charlie Cao. In his address, Cao said that globalisation remains central to the company’s strategy and that Jinko is entering a new phase focused on local manufacturing for local markets through its “CLASS” model. He added that the approach has already been rolled out in key markets, including the US and the Middle East.  

According to Jinko, the Tiger Neo 5.0 range of tunnel oxide passivated contact (TOPCon) module delivers up to 700W of power output and a module efficiency of 25.91%, representing an increase from the 670W output of previous products in a similar form factor. 
Speaking at the event, Xinyu Zhang, vice president of research and development at JinkoSolar, highlighted ongoing work to improve TOPCon performance through advancements in wafer quality, cell structures and metallisation materials. 
The company also announced that its perovskite-TOPCon tandem solar cell has achieved a certified conversion efficiency of 34.82%. Tandem solar technologies combining perovskite and silicon are widely regarded as a potential successor to conventional single-junction silicon cells due to their higher theoretical efficiency limits. However, its commercial deployment remains at an early stage. 
Meanwhile, Jinko’s SunTera G5 energy storage system targets utility-scale renewable energy and industrial applications. 
Jinko said the system is built around a cell-to-pack (CTP) architecture and delivers a round-trip efficiency of more than 96%. The product is designed for long-duration storage applications and includes AI-enabled monitoring function to improve battery performance and operational reliability. 
The system will be used for renewable energy integration, grid-scale storage projects, industrial facilities and data centres. 
Additionally, Jinko launched six specialised module variants tailored for different operating conditions, including products designed to reduce dust accumulation, withstand severe weather conditions, minimise glare near transport infrastructure and support installations on weight-constrained rooftops.

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Sonnedix closes financing on 102MW PV portfolio in Spain and Italy – PV Tech

Independent power producer (IPP) Sonnedix has reached financial close on a 102MW solar PV portfolio in Spain and Italy.
Consisting of four solar PV projects, all in the construction phase, the IPP closed a €67 million financing deal with Spanish and international financial institutions Banco Santander, Banco Sabadell, BBVA, Rabobank, CIBC, and NatWest.

According to the IPP, the financial close falls within an existing financing platform designed to support the construction of renewable energy projects in several countries across Europe, including the UK.
Daniel Machuca, global head of project finance at Sonnedix, said: “This financing has been particularly complex due to its cross-border nature and the simultaneous closing in two jurisdictions. Its success was made possible thanks to very close coordination between teams and financial institutions, and it demonstrates our ability to design efficient solutions that support the development of our portfolio.”
In Spain, the financing will cover the Sonnedix Duquesa project, a 25MW PV plant located in the eastern Valencian community, which is expected to begin operations in the second half of this year. The project also represents Sonnedix’s hybridisation strategy as it will incorporate a battery energy storage system (BESS) at a later phase.
The remaining three projects, located in Italy, are part of the Dolce Vita portfolio which consists of 5 PV plants. The projects included in this financing round are the Sonnedix Latina 3 (38MW), the Sonnedix Cisterna (21MW), both located near the capital, Rome, and the Sonnedix Cascinetto (18MW) in northern Italy.
The Italian PV assets secured a 20-year contracts for difference (CfD) award through the FER X support scheme, which awarded nearly 8GW of PV capacity last year. Sonnedix’s managing director in Italy, Mario Volpe, recently spoke with PV Tech Premium about securing capacity in the FER X auction and the importance of this scheme (subscription required) for the Italian market, as well as the MACSE one for BESS.

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Sonnedix Closes €67M Financing for 102MW Solar PV Portfolio Across Spain and Italy – News and Statistics – IndexBox

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Independent power producer Sonnedix has secured financial close on a 102MW solar photovoltaic portfolio spanning Spain and Italy, as reported by PV Tech.
The portfolio comprises four solar PV projects, all currently under construction. Sonnedix closed a EUR67 million financing deal with a group of Spanish and international financial institutions: Banco Santander, Banco Sabadell, BBVA, Rabobank, CIBC, and NatWest.
According to Sonnedix, this financial close is part of an existing financing platform designed to support the construction of renewable energy projects across several European countries, including the UK.
Daniel Machuca, global head of project finance at Sonnedix, commented that the financing was particularly complex due to its cross-border nature and the simultaneous closing in two jurisdictions. He noted that the success was achieved through close coordination between teams and financial institutions, and that it demonstrates the company’s ability to design efficient solutions that support portfolio development.
In Spain, the financing will cover the Sonnedix Duquesa project, a 25MW PV plant located in the eastern Valencian community. The project is expected to begin operations in the second half of this year. It also represents Sonnedix’s hybridisation strategy, as it will incorporate a battery energy storage system at a later phase.
The remaining three projects are located in Italy and are part of the Dolce Vita portfolio, which consists of five PV plants. The projects included in this financing round are the Sonnedix Latina 3 (38MW) and the Sonnedix Cisterna (21MW), both located near Rome, and the Sonnedix Cascinetto (18MW) in northern Italy.
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Freyr Energy Deploys 221-kW Rooftop Solar System for Maharashtra FPO, Supporting Sustainable Agriculture in Marathwada – SolarQuarter

Freyr Energy Deploys 221-kW Rooftop Solar System for Maharashtra FPO, Supporting Sustainable Agriculture in Marathwada  SolarQuarter
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Beyond modules: why US solar’s future depends on upstream manufacturing scale-up – PV Tech

United States trade policy is no longer just impacting imports to the US; it is reshaping where the world builds solar manufacturing capacity. With 92% of global PV module capacity now facing restrictions on entering the US market, manufacturers are racing to establish compliant supply chains across the world. Simultaneously, domestic producers are accelerating efforts to build US-based cell manufacturing capacity. What started with anti-dumping measures against PV modules from China has extended across Southeast Asia and beyond through ongoing anti-dumping and countervailing duty (AD/CVD) investigations.
The scope continues to expand upstream, now covering PV cells and potentially Chinese polysilicon through the ongoing Section 232 investigation. Companies targeting the US market are scouting new locations for manufacturing capacity spanning the entire value chain, strategically avoiding countries and regions subject to trade restrictions. Foreign Entity of Concern (FEOC) rules add an additional layer of complexity to an already labyrinthine procurement landscape.

The data underpinning this article is drawn from the latest edition of PV Tech Research’s ‘PV manufacturing and technology quarterly’ report, the definitive benchmarking resource for the PV technology value chain.
As of March 2026, more than 92% of the world’s PV module manufacturing capacity faces some form of restriction on entering the United States, primarily through anti-dumping and countervailing duties (AD/CVD), according to data from PV Tech Market Research. This figure reflects the preliminary results of AD/CVD investigations targeting India, Indonesia and Laos, as well as the extension of existing duties on China. The scope continues to widen: the Department of Commerce has received a petition from the Alliance for American Solar Manufacturing demanding another AD/CVD investigation, this time targeting cells produced in Ethiopia.
The highly anticipated results of the Section 232 investigation into polysilicon supply are expected in the first half of 2026, though the timeline remains uncertain. This investigation represents a fundamental departure from previous trade enforcement tools. Unlike traditional AD/CVD measures that target finished products like cells or modules, Section 232 focuses on polysilicon, the raw material at the foundation of the solar supply chain. Depending on the scope of restrictions imposed, all modules and cells manufactured from non-US polysilicon could face substantial tariffs, effectively reshaping the entire global solar value chain at its source.
This upstream approach could eliminate the need for ongoing AD/CVD rulings by directly targeting and disrupting Chinese manufacturers’ value chains at the source. While the results are likely to create both winners and losers, depending on how polysilicon from various sources is managed, in the meantime, the prolonged uncertainty has already destabilised the market, with manufacturers struggling to determine which supply sources will remain viable for US market access.
In addition to AD/CVD duties, the United States has implemented FEOC rules that create another significant barrier for foreign manufacturers seeking to access the US market. FEOC regulations prohibit clean energy projects from using equip­ment manufactured, owned, or controlled by entities tied to China, Russia, Iran, or North Korea if they wish to qualify for federal tax credits, including Section 45X for manufacturers and Sections 45Y and 48E for developers.
Most interpretations of the FEOC rules currently assume that 25% represents the threshold for significant ownership in manufacturing operations; however, this remains an assumption pending official clarification. Earlier this year, the US govern­ment released Material Assistance Cost Ratio (MACR) calculations for developers requiring at least 50% of solar component costs to be sourced from non-FEOC countries. In a typical market, this requirement might be manageable. However, China maintains a dominant position across the entire solar supply chain, especially further up with polysilicon and wafer production. This dominance explains why the United States has adopted these measures to enable domestic supply chain development.
These restrictions targeting China have produced significant unintended conse­quences. The locations of new manufactur­ing capacity have become more geograph­ically diverse than ever before, with some of the world’s largest solar manufacturers expanding into the Middle East and North Africa. Substantial capacity has been announced or is already under construc­tion in Saudi Arabia, Oman and Egypt.
In these new locations, Chinese compa­nies are increasingly establishing joint ventures to navigate both regulatory and financial challenges. The 24.9% ownership threshold has emerged as a critical figure in manufacturing partnerships, appearing repeatedly in recent months as companies structure investments to remain below the presumed 25% FEOC threshold. Canadian Solar resumed direct oversight of US market manufacturing through a joint venture in which the Chinese-listed entity holds exactly 24.9% ownership. Similarly, JA Solar owns 24.9% equity in an Omani manufacturing facility, while LONGi has reduced its stake in Illuminate USA, a US manufacturing joint venture with Inven­ergy, to comply with FEOC considerations.
A new grouping of companies is emerging, most of which are set up exclusively to supply the US market from countries not subject to AD/CVD tariffs or FEOC restric­tions. These are smaller, more agile, usually privately held and able to quickly set up manufacturing capacity without commit­ting to long-term expansion plans in just one country. Examples of these companies can be seen in sub-Saharan Africa, where PV Tech Research estimates that there is currently 11GW of PV cell manufactur­ing capacity operational, with additional capacity coming online this year. However, these manufacturers face significant regulatory risk. The evolving legislative landscape can quickly make compliant locations non-compliant, as demonstrated by the current situation in Ethiopia.
There is also significant PV cell and module manufacturing capacity up and running in Türkiye; until recently, this was almost all to supply the domestic market. However, US trade policies have opened up opportunities for exporting products. Türkiye’s PV cell manufacturing capacity is forecast to increase from 1GW in 2023 to about 7GW by the beginning of 2027, and its module capacity from 13GW to 30GW in the same timeframe. This has been driven by the HIT-30 high-tech investment incentive programme, launched in 2024, to strengthen the country’s position in the global solar energy market.
Five companies were selected to receive support on the basis that they reach an annual cell manufacturing capacity of 5GW. Most of this capacity will be targeted at exports, with the US the key market for these. CW Enerji, one of the selected companies, has already secured cell supply contracts with US buyers worth nearly US$30 million and holds a memorandum of understanding to supply US$750 million worth of modules to a US client through 2030.
Turkish manufacturers are currently very attractive to both module manufactur­ers and purchasers, as they offer lower FEOC risk, though these rules may change down the line. Some manufacturers are even vertically integrated beyond current regulations, with wafer and ingot produc­tion capacity in the country.
Excluding thin-film technology, the United States currently has over 66GW of domestic module manufacturing capacity, supplied by just over 11GW of domestic cell capac­ity, according to PV Tech Research’s data. With over 92% of the world’s cell capacity under some form of restriction from enter­ing the US, filling the gap between cell availability and module capacity is becom­ing increasingly challenging. However, the US benefits from being the most profit­able market globally, meaning that cell manufacturers that remain eligible to ship to the US will continue to do so.
We estimate that the remaining cell capacity outside the US across all FEOC-compliant countries free of AD/CVD restric­tions totals just under 35GW. Even if this entire capacity were dedicated to supplying the US market, it would still not be sufficient to meet module manufacturing demand, leaving a gap of at least 20GW in the impos­sible yet best-case scenario of all compliant cells worldwide being shipped to the US.
This supply constraint forces US module manufacturers and project developers to navigate a tiered procurement strategy. The top tier consists of cells that are both AD/CVD-compliant and FEOC-compliant, offering maximum supply chain security and full eligibility for federal tax credits.
The middle tier includes cells subject to AD/CVD tariffs but FEOC-compliant, which still qualify for tax credits. In this case, the manufacturer will have to pay the relevant AD/CVD tariff depending on the country of origin. However, down the line, it can still claim the 45X manufacturing credit, and the developer can claim the 45Y production credit. The viability of these will depend on pricing from the original manufacturer, the relevant tariff rate and the product’s availability. India is a prime candidate for this type of cell, but given the demand for locally produced cells from its domestic market under India’s ALMM-II mandates, which come into effect in June, availability is likely to be a key constraint in this category.
Cells in the bottom tier have FEOC exposure, whether AD/CVD-compliant or not; they face tariffs and, more importantly, are ineligible for tax credits.
This tier has two subcategories. The first is cells with FEOC exposure but no AD/CVD tariff; these cells are in the smallest supply and would come from a FEOC-exposed company building a facility outside its home country.
The second subcategory is cells exposed to both FEOC and AD/CVD, so the manufacturer would have to pay a large tariff on imports and would not be able to claim any manufacturing credit, and the developer would not be able to claim any production credit. These will also be the cheapest possible cells; viability will mainly depend on the willingness to do business, the tariff rate and the pricing available for modules ineligible to claim tax credits.
An alternative scenario to the choices outlined above, albeit an unlikely one, would be that some of that 66GW of operational module capacity would remain idle until the domestic cell supply chain catches up with demand. While the very high utilisation rate we have been seeing in the US in recent months makes this unlikely, it could become a possibility as import policies continue to tighten.
These supply constraints can be viewed as temporary growing pains in the US solar manufacturing landscape. Significant domestic cell capacity is currently under development and expansion. This year, ES Foundry tripled its production capacity. Later this year, T1 is expected to bring its cell manufacturing online, and Suniva has announced additional cell capacity for next year. This can be seen as a timing mismatch between the module production capacity already operating and the cell capacity still ramping up. However, until domestic cell production reaches scale, the market faces serious volatility as manufacturers and developers navigate the complexities of trade restrictions, compliance requirements and supply availability, as outlined above.
The clear winners in this environment are primarily US manufacturers with domes­tic value chains, particularly those with vertically integrated operations and secure access to compliant cell supply. Companies able to establish FEOC-compliant struc­tures through joint ventures or regional partnerships are also emerging in stronger positions, especially across Türkiye, MENA and parts of sub-Saharan Africa.
Meanwhile, manufacturers that relied heavily on Southeast Asian cell supply chains now face growing pressure as Indonesia and Laos become increasingly restricted routes into the US market. The challenge is particularly acute for compa­nies with significant US module assembly capacity but insufficient domestic or compliant upstream cell manufacturing capability.
The global manufacturing response has become increasingly fragmented. Larger manufacturers are pursuing long-term investments in Türkiye and MENA, often through carefully structured joint venture arrangements designed to comply with FEOC thresholds, while smaller, more agile players continue shifting produc­tion between jurisdictions as regulations evolve.
At the same time, the industry faces mounting uncertainty around the pending Section 232 investigation into polysilicon, which could further reshape compliant supply chains by targeting upstream materials rather than finished products. The result is a market increasingly driven not just by manufacturing cost and scale alone, but by political alignment, owner­ship structure and trade compliance.
It is important not to forget that all this is not happening in a vacuum; energy demand is growing in the US as the country looks to reindustrialise and, more importantly, to compete in the AI race. In this environment, a successful solar manufacturing industry is no longer defined solely by cost competitiveness or scale, but by control of the supply chain.
The current cell bottleneck already demonstrates the risks of depending on a limited compliant supply, with domestic module capacity far outpacing the availability of unrestricted cells. For the US solar industry to scale sustain­ably and competitively, manufactur­ing expansion must move further up the supply chain. Building module assembly capacity alone is no longer sufficient; securing domestic produc­tion of cells, wafers, ingots and polysili­con is becoming essential to ensuring long-term supply security, regulatory compliance and the resilience of the US solar manufacturing ecosystem.
The companies at the centre of America’s burgeoning c-Si supply chain will offer in-depth insights into their work at our annual PV CellTech USA conference in San Francisco on 13-14 October. From polysilicon through to cells, the event will explore the opportunities and challenges in the rapidly evolving US PV manufacturing landscape through the experiences of the supply-chain innovators leading the way. For full details and booking, click here.

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Solar firms eye space-based energy frontier – China Daily

In order to build on their leadership in the global arena and unlock next-generation growth channels, China’s leading photovoltaic firms are eyeing space-based solar energy production as the industry’s next technological frontier.
By expanding into this field, they hope to diversify their business, break conventional market constraints and create high-end applications for China’s substantial solar production capacity.
At the opening ceremony of the 19th International Photovoltaic Power Generation and Smart Energy Conference and Exhibition in Shanghai on Tuesday, a consortium of 13 tier-one solar and technology enterprises officially launched the Space Energy Development Alliance.
The alliance aims to integrate resources across the entire supply chain, including solar power, energy storage, hydrogen power, computing and charging, in order to bridge the boundaries between aerospace and green energy.
Company executives and industry analysts regard this as a pivotal and strategic move for Chinese solar power manufacturers seeking to escape intense domestic competition and tap into massive incremental markets.
Zhu Gongshan, chairman of GCL Group, said, "If the first half of the photovoltaic industry’s paradigm revolution is the symbiosis of watts and bits, the second half is the dance between materials and aerospace."
He described the shift as "an epic expansion of energy scenario boundaries", extending from the land and oceans to extraterrestrial orbits.
"Simultaneously arriving with the photovoltaic paradigm revolution is a cross-sectoral composite technology cluster covering power electronics, digital technology, advanced materials, aerospace engineering, communication technology, wireless power transmission and synthetic biology, far exceeding the industry’s traditional technological road map," he said.
According to Zhu, gathering solar energy in the near-ideal cosmic environment enables systems to escape the effects of atmospheric filtering and the day-night cycle of the Earth, resulting in a highly efficient and constant form of closer-range photosynthesis.
"Reusable rockets continuously lower launch costs, and giant commercial constellations create large-scale demand, pushing space-based photovoltaics into the realm of engineering economics," Zhu said.
He projected that once radiation-resistant packaging passes rigorous testing, related technologies could be used for active space applications within five to 10 years.
The long-term outlook for the industry is that space-to-Earth wireless power delivery will replace conventional generation-transmission-consumption chains, eliminating the need for lengthy land grids and enabling instant power supply to remote outposts, islands and emergency sites.
Zhu noted that space will maximize the synergy between on-site energy production and real-time computing.
Prominent energy experts praised the alliance as a visionary step toward long-term industrial evolution, while also taking a pragmatic view of current market dynamics.
Lin Boqiang, head of Xiamen University’s China Institute for Studies in Energy Policy, said that setting up such an alliance is a highly commendable initiative.
"While commercial operations remain on the distant horizon, pioneering this path is vital. Space-based solar power will likely be significantly more expensive than terrestrial alternatives for at least the next decade, meaning ground-based solar installations will remain our primary reliance for a long time to come," Lin said.
"However, the domestic ground-based market still holds significant growth potential, and initiating early layouts in space-based technology is a farsighted strategy worth advocating."
Tan Youru, a solar analyst at BloombergNEF, echoed this sentiment, adding that these corporate initiatives represent vital forward-looking technical developments and highly anticipated frontier applications.
While the long-term vision of space-based photovoltaics remains an exciting prospect for future technological leadership, he added that the industry must stay focused on resolving its immediate challenges, such as the issue of overcapacity.

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Malaysia forecast to reach 29.7 GW of solar by 2035 – pv magazine Global

Malaysia is on track to reach 29.7 GW of solar capacity by 2035, according to figures shared by GlobalData.
The consultancy is expecting Malaysia’s solar capacity to rise from 5.8 GW at the end of last year to 7.3 GW at the end of this year, an increase of 1.5 GW.
Next year’s solar deployment is forecast to reach 1.9 GW, the analysis adds, before annual deployments increase to between 2.4 GW and 2.7 GW annually through to 2035.
This trajectory would see Malaysia surpass 10 GW of solar during 2028 and exceed 20 GW of solar during 2032, leaving the country just short of 30 GW by the end of 2035.
Solar energy accounts for most of Malaysia’s renewable capacity. GlobalData’s analysis forecasts the country’s total renewable fleet will increase from around 6.9 GW in 2025 to approximately 31.5 GW by the end of 2035.
This growth rate would see Malaysia exceed its National Energy Policy’s 2040 renewable energy capacity target of 18.43 GW during 2031, nine years in advance. GlobalData attributes the progress to Malaysia’s large-scale solar tenders, strong policy framework, accessible financing and rapidly-improving grid integration and storage capacity.
Sudeshna Sarmah, Power Analyst at GlobalData, commented that Malaysia’s energy investment portfolio increasingly tilted towards renewables from 2020 to 2025.
“Solar PV has seen robust and steady growth, with capital allocations rising approximately $2.1 billion by 2025. Investments in hydro and biopower remain modest while gradually increasing, they are still small relative to solar,” Sarmah said. 
“Looking ahead to 2026 to 2030, solar is projected to dominate the renewable energy investment landscape. Gas will maintain a supporting role, with investment in balancing and peaking capacity hovering between $0.2–0.6 billion annually.”
Attaurrahman Ojindaram Saibasan, Power Analyst at GlobalData, told pv magazine that Malaysia could support its solar market further by extending tax breaks and green financing tools past 2026 so investors and developers feel more secure.
“Introducing feed-in tariffs especially for smaller, remote, or off-grid projects could really help bring solar to places where the grid isn’t strong,” he also suggested. “Switching up export rates to match when the grid needs energy most using time-of-use or dynamic pricing would reward people who shift their solar production to peak times.”
Saibasan added that supporting energy storage with subsidies or tax credits will be key, as well as faster approvals for grid connections and clearer roadmaps showing where the grid can handle more solar in order to reduce bottlenecks.
Saibasan also suggested that local manufacturing of solar panels and related components would boost supply chains and create jobs, while investing in research and development for floating solar, agrivoltaics and integrated roof systems could open new frontiers.
“Having stable, transparent regulations and good standards for equipment and installers would build trust, while focused programs for rural or underserved areas would help make the shift to solar more inclusive for everyone,” he told pv magazine.
Last month, the government of Malaysia announced a new rebate scheme for home solar installations offering a rebate of MYS 600 ($151.27)/kWac, up to a maximum MYS 3,000 per household for a 5 kWac system.

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JinkoSolar debuts new Chief Executive and launches 700W Tiger Neo 5.0 modules – Green Building Africa



JinkoSolar, a global supplier of photovoltaic and energy storage solutions, used its 2026 SNEC New Product Launch and Media Briefing to introduce its new chief executive Charlie Cao and present a suite of advanced solar and storage technologies on the eve of the 19th International Solar Photovoltaic and Smart Energy Conference and Exhibition.
Charlie Cao made his first public appearance since taking office and outlined the company’s evolving global strategy as JinkoSolar marks its 20th anniversary. He said globalization remains central to the company’s identity and confirmed a transition towards what he described as Global Manufacturing 3.0, shifting from global marketing and manufacturing towards global investment. He also introduced the CLASS model, which focuses on Cooperation, Licensing, Access, Service and Sharing to support localised manufacturing for local markets. The approach is already being implemented in the United States and Middle East markets.
At the product launch, JinkoSolar unveiled its Tiger Neo 5.0 photovoltaic modules, which achieve up to 700W power output within the same module size and a conversion efficiency of 25.91%. The company said this marks a significant step forward for TOPCon technology, supported by advances in silicon substrate quality, light trapping structures, full area passivation and optimized packaging. The modules also achieve power density above 259W/m² and deliver up to 3% higher energy yield compared with similarly sized competitor products.
The company emphasized that the Tiger Neo 5.0 platform is designed as a value driven solution rather than a single performance upgrade, focusing on higher system returns over the lifecycle of installations.
JinkoSolar also presented a suite of scenario specific modules targeting different application environments. These include dust resistant modules designed to reduce operations and maintenance costs through nano coated glass, AIDC modules tailored for data centers that increase lifetime power generation by more than 3% and significantly reduce system risk costs, and Safety Guardian modules capable of withstanding 55 mm hailstones while meeting dual Class A fire safety standards. Additional products include anti-glare modules for transport infrastructure with reflectance as low as 7%, lightweight modules at 7 kg per m² for load constrained rooftops, and reinforced Mount Tai modules designed for harsh desert and wasteland environments.
On the energy storage side, Jinko ESS introduced the SunTera G5 system with a capacity of 7.76 MWh per unit. The system uses a cell to pack architecture and achieves an energy density above 570 kWh/m² within a standard 20 foot container. It delivers round trip efficiency of more than 96% and is designed for a 25 year operational lifespan with state of health maintained at or above 70%.
The system incorporates artificial intelligence driven functions for battery health prediction, fault alerts and operational optimisation. It is positioned for use in industrial parks, renewable energy integration projects, artificial intelligence data centres and grid scale storage applications.
JinkoSolar also highlighted continued progress in advanced cell research, reporting that its perovskite TOPCon tandem cells have achieved a certified peak efficiency of 34.82%, marking the company’s 33rd world record in this area. The company said the breakthrough results from deeper integration of perovskite and TOPCon technologies, alongside ongoing innovation in materials and cell structures.
With the launch of the Tiger Neo 5.0 platform, the SunTera G5 storage system and a broad portfolio of application specific modules, JinkoSolar said it is building an integrated smart energy ecosystem spanning generation, storage and system optimisation, anchored in continuous technological innovation and expanded global deployment.
Author: Bryan Groenendaal

 






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New regulations to allow Nigerians sell surplus solar energy to DisCos – The Guardian Nigeria News

New regulations to allow Nigerians sell surplus solar energy to DisCos  The Guardian Nigeria News
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Emmvee Photovoltaic Power – HFCL among 6 stocks flashing bullish signals, hinting at a possible uptrend – The Economic Times

On June 3, six stocks in the Nifty500 appeared on the ‘White Marubozu’ bullish scanner, according to StockEdge’s technical scan data. A White Marubozu is a bullish candlestick pattern in technical analysis that occurs when the opening price is the lowest for a given period and the closing price is the highest.

Represented by a long white (or green) candlestick with no upper shadow and a small or nonexistent lower shadow, it indicates strong buying pressure throughout the session. Traders interpret it as a signal that buyers were in control from the opening to the closing, often using such patterns for informed decisions about future price movements in financial markets.

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Small-scale certificate April record bumps rooftop solar 30% to 435 MW – pv magazine Australia

On the eve of 1 May 2026 home battery rebate reductions, April was a bumper month for residential rooftop solar uptake nationwide achieving 435 MW, up 30% month-on-month (MoM), according to SunWiz market insights.
The Cheaper Home Batteries Program (CHBP) gear-change tapped the brakes a little in May, seeing rooftop solar uptake down by 22% MoM, but still 46% above May 2025.
SunWiz said a key driver was the CHBP change, but also the demand for larger solar arrays needed to pair with bigger home battery energy storage systems (BESS).
“Every size band and state remains well above year-ago levels, and the Cheaper Home Battery Program continues to act as a multiplier on PV,” the SunWiz insight paper says.
“Electrification of appliances and EVs is the likely next leg of the cycle.”
All states remained well above year-on-year levels, but from April to May, Victoria was the only state to grow MoM +16%, while Queensland saw the sharpest correction -34%, followed by New South Wales (NSW) -32%, South Australia (SA) – 28%, Northern Territory (NT) -10%, Tasmania -3%, and Western Australia (WA) -2%.
“The 10–15 kW residential band remains the backbone at 121 MW (~36% of the market),” the Insights say.
“The mix continues to tilt toward larger systems — 15–20 kW and 20–50 kW both gained share this year — while the traditional 5–10 kW band keeps shrinking (down to ~28% of capacity). The large-format15–100 kW segment eased from April’s spike but still sits well clear of every prior year.”
SunWiz notes EnergyBuild (Stoddart) is the runaway year-to-date (YTD) leader installing approximately 23.5 MW, followed by Green Engineering/AGPIG (~8 MW) in second ahead of NSEG (~6.7 MW), but Suntera (SOLA NOW), fourth on ~5.8 MW, posted a strong Q2 and is closing on a top-three spot.

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NTPC REL Floats EPC Tender For 550 MW Solar PV Project In Rajasthan – SolarQuarter

NTPC REL Floats EPC Tender For 550 MW Solar PV Project In Rajasthan  SolarQuarter
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Mexico exceeds 5 GW of distributed solar capacity – pv magazine Global

Distributed solar generation in Mexico reached an installed capacity of 5,164.98 MW across 600,368 applications by the end of 2025, according to updated figures from the country’s National Energy Commission (CNE).
Total distributed generation from interconnected power plants smaller than 0.7 MW reached 5,189.71 MW across 600,651 processed applications, CNE data adds, meaning solar represents over 99.5% of the total.
The estimated investment associated with the solar systems amounts to $13.217 billion, based on a capital expenditure of $2,559/kW. The total estimated investment across all distributed generation technologies reaches $13.336 billion.
CNE’s figures, covering 2007 to 2025, show that distributed generation has maintained steady growth since the implementation of Resolution RES/142/2017, which established the legal, technical and financial framework for distributed generation.
The state of Jalisco, western Mexico, has the highest number of distributed solar facilities, at 99,949, with 747.67 MW of the total capacity. The national average installed capacity per state is 162.18 MW, while the average capacity per application stands at 8.64 kW.
Net metering remains the dominant market mechanism, with 593,607 applications and 5,113.14 MW of installed capacity. Within this framework, systems of up to 50 kW account for 98.23% of applications and contribute 3,251.46 MW, representing 63.59% of total net-metered capacity. Systems ranging from 250 kW to 500 kW, although representing only 0.40% of applications, contribute 989.02 MW, or 19.34% of net-metered capacity.
The net energy billing regime includes 6,540 applications and 73.41 MW, also dominated by installations of up to 50 kW. Meanwhile, the full energy sales regime records 504 applications and 3.43 MW.
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We all pay too much for energy. This is where Fuse comes in, says founder – The Times

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Tiny village in South Africa that was without electricity for 30 years now has an advanced solar power system – MyBroadband

Tiny village in South Africa that was without electricity for 30 years now has an advanced solar power system  MyBroadband
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Warum haben die Photovoltaik – Giganten so große Schwierigkeiten mit ihrem Energiespeicher – Geschäft? – 36 Kr

Energy storage as a lifesaver for photovoltaic giants is not that easy to grasp.
Today is the first day of the opening of the SNEC Photovoltaic Exhibition.
The exhibition hall was full of people. One had to wait half an hour to get a 58-yuan meal package, which is called the “Shanghai money” box. When I sat down to eat, the young man opposite me said with a somewhat self-deprecating smile:
These boxes are sold much better than photovoltaic modules and batteries.
As is well known, photovoltaic modules are as cheap as cabbages today compared to the expensive boxes. Since the photovoltaic industry is difficult to operate, almost all photovoltaic giants have placed their energy storage products in the most prominent position at this year’s exhibition stand.
Integration of photovoltaics and energy storage, the second growth curve, GWh series delivery – these are the stories that the giants like to tell the most this year.
Two weeks before the opening of the exhibition, JA Solar Technology announced on its official WeChat account: Wang Junsheng will be appointed President of JA Solar Energy Storage Company, effective immediately.
The fact that JA Solar changed two leaders for the energy storage industry in two years clearly shows that JA Solar now values the energy storage industry. In 2025, the sales revenue of JA Solar Technology was 49.1 billion yuan, and there was a loss of almost 5 billion yuan. No specific figures about the energy storage industry were mentioned in the annual report.
The difficulties of JA Solar are a reflection of the photovoltaic giants in the energy storage industry.
Last year, almost all leading photovoltaic companies put the energy storage industry at the forefront of their strategies. The reason is simple: The core business no longer brings profits.
According to the statistics of China Energy Network, the total losses of nine photovoltaic giants such as Tongwei, TCL Zhonghuan, Longi and JinkoSolar in 2025 were over 43.5 billion yuan, at most 50 billion yuan. Some institutions predict that the total losses of all listed photovoltaic companies this year, including those in the second and third tiers, will exceed 60 billion yuan.
On the other hand, the annual reports of leading energy storage companies look quite different. In 2025, the net profit of Sungrow Power Supply reached about 13.5 billion yuan, an increase of 22% compared with the previous year; the net profit of Hyperstrong Energy Technology was 950 million yuan, an increase of 47%; and the sales revenue of the energy storage sector of CATL was 62.4 billion yuan.
When it has become the norm in the industry that components have negative margins, the energy storage industry seems to be a lifesaver.
But the problem is obvious – photovoltaic companies have channels, brands and customers. It seems logical to sell energy storage to those who have previously bought components from them. But this path is not smooth.
Why is it so difficult for the giants that have stood out in the fierce competition of the photovoltaic industry to be successful in the energy storage industry?
Perhaps the most apt explanation is the sincere statement of Shi Zhengrong, a photovoltaic tycoon, at a forum – “Each industry is like a world of its own.”

In fact, there is already a gap in the energy storage business of photovoltaic giants.
In this group, Canadian Solar and Trina Solar are the two companies that are relatively far ahead in the energy storage industry.
In 2025, the sales revenue of Canadian Solar from energy storage systems was 10.8 billion yuan, the profit margin was 28.6%, and the delivery of large-scale energy storage was 7.8 GWh. The energy storage industry accounted for 27% of the total sales revenue and was already a solid profit pillar. In the context of the industry’s overall loss, Canadian Solar achieved a net profit of 1.016 billion yuan.
However, this success did not come suddenly last year. Its subsidiary for energy storage, e-STORAGE, has been established in North America, South America and Australia for years and has already built independent sales, engineering and maintenance teams.
In June 2025, Canadian Solar’s SolBank 3.0 passed the Canadian CSA TS – 800 large – fire testone of the few energy storage products in the world that could pass this test.
In other words, Canadian Solar is successful in the energy storage industry not because it sells many photovoltaic modules, but because it has invested enough time in this sector.
Trina Solar also deserves attention.
In 2025, the sales revenue of Trina Storage was 4.28 billion yuan, an increase of 83% compared with the previous year. The delivery was over 8 GWh, and the proportion of overseas income was over 60%. The energy storage industry has already made profits and has become an important profit growth point for the company. The goal for 2026 is to double the delivery to 15 to 16 GWh, and the existing overseas orders are over 12 GWh.
In contrast to Canadian Solar, Trina Solar pursues the strategy of “Full – Stack Self – Development” – everything from the battery cell to the system is self – produced. The three core systems BMS, EMS and PCS are all self – produced. It is not easy to source battery cells from outside, assemble them in a cabinet and sell them, but real investment is made in technology.
The other companies are obviously still in the exploration phase.
In 2025, the delivery of energy storage by JinkoSolar was 5.2 GWh, a very rapid increase of over 380% compared with the previous year. The existing orders are over 10 GWh, and the company plans to double the delivery in 2026. In the investor communication in the first quarter of 2026, it was stated that the profit margin of the energy storage industry in the first quarter was about 16%. But due to the delay in order implementation and the small amount of order implementation, there is still a certain loss in the energy storage industry.
There is still a long way between volume increase and profitability.
Longi Green Energy acquired a majority stake in Suzhou Jingkong Energy only in January this year. 6 GWh is only an operating target, and the actual delivery has not started yet. JA Solar has not separately published the sales revenue from the energy storage industry.

The question is: Is delivery on a GWh scale already a success? A comparison with the real energy storage leaders shows it.
In 2025, the sales revenue of Sungrow Power Supply from energy storage was 37.3 billion yuan, the delivery was 43 GWh, and the profit margin was 36.49%. The sales revenue of CATL from energy storage was 62.4 billion yuan, the delivery was 121 GWh, and the profit margin was 26.71%.
Canadian Solar has achieved the best result in the photovoltaic group with 10.8 billion yuan, but compared with Sungrow Power Supply, it is still less than a third.
The huge difference in scale makes us can’t help but wonder where the difficult points for component companies in the energy storage industry lie?
The biggest advantage of photovoltaic giants in the energy storage industry is – the channels.
The logic sounds reasonable: I have global channels and brands, and there is a certain overlap in customers. If they have bought my components, it is natural to buy my energy storage systems too.
The problem is that components and energy storage are two completely different businesses.
Components are standard products. Customers look at efficiency, price, brand and delivery ability. Once a module is manufactured and installed, the manufacturer hardly needs to do anything during the module’s lifespan.
Energy storage is completely different.
From contract signing to the operation of a large – scale energy storage power plant, a series of inspections such as grid connection planning, fire protection certification, BMS and EMS settings, power trading strategy and long – term maintenance inspection must be passed.
Customers are not just buying a battery cabinet, but a system project that must constantly interact with the power grid, political measures and local regulations.
Photovoltaic channels can help companies open the doors of customers. But the questions that need to be answered after entering the door – such as how to set up the grid connection, who is responsible for safety, who undertakes maintenance and how to optimize power trading – are completely different from selling components.
Zhang Jianhui, the founder of Hyperstrong Energy Technology, said in an interview: “Energy storage is not simply a simple connection of standardized battery cells or PCS, but a customized solution based on the specific situation.”
This sentence means: Energy storage companies are not just selling devices, but a customized solution for a specific situation.
Let’s look at a series of data – the profits. Only a few photovoltaic giants make money in the energy storage industry.
The underlying logic is that the price of large – scale energy storage on the Chinese market is very low, and the profit margin is generally between 15% and 20%. To achieve a profit margin of over 25%, one must establish oneself in overseas income. And overseas income requires precisely the abilities such as grid connection experience, safety certification and long – term maintenance, which take time to accumulate.
Therefore, it is not easy to really make money in the energy storage industry and get a price premium.
Besides the differences in abilities, there is still a threshold that is difficult to overcome: the time window.
Sungrow Power Supply started its career with inverters and has almost 30 years of experience in power electronics and grid technologies. In 2025, the energy storage system was already its largest business segment, and the sales revenue proportion was over 41%.
CATL also did not start the energy storage industry recently. From battery cells to system integration, the company delivered over 70 projects worldwide in 2025, and the delivery volume increased by over 160% compared with the previous year.
All these are things that have been accumulated over the years – material systems, manufacturing processes, BMS algorithms, EMS platforms, safety certifications in different countries around the world, all must be acquired step by step.
Photovoltaic companies can quickly build capacities, produce products and get orders today. But the path from “producing products” to “producing good products” is not easy to bridge with money.
If there are problems with the grid connection of a power plant, who does the customer call first? Who is responsible if the battery weakens more than expected after three years? Can the EMS strategy respond promptly to price fluctuations in the power market?
These abilities must be acquired piece by piece through projects, and there are no shortcuts.
Longi Green Energy acquired a capacity of 31 GWh and global grid connection experience immediately by acquiring Jingkong Energy. The starting point is actually not low. But whether it can really assimilate the team, technology and customer relationships of Jingkong will only be shown in the future.
Yang Bao, the president of the energy storage department of Trina Solar, once said sincerely: “The competition in the energy storage industry is not only about price, but also about safety, maintenance and long – term compatibility with the power grid.”
This sentence applies to all photovoltaic companies entering the energy storage industry.
And there is still an important question: How long will the time window for latecomers in the energy storage industry remain? The safety requirements…
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APsystems unveils solar-storage lineup at SNEC 2026 – Solarbytes

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APsystems, an energy technology company, has showcased solar-storage innovations at SNEC 2026 in Shanghai. The company has launched seven product lines covering AC coupling, hybrid AC-DC coupling, off-grid and string-type energy storage solutions. APsystems also debuted the LSH-6 and LSA-6 residential storage inverters for different household PV storage needs. The LSH-6 integrates PV generation, on-grid and off-grid supply, and smart energy management with support for up to 12 kW of PV capacity. The LSA-6 supports both existing PV system retrofits and new residential solar projects. Both inverters use 48 V low-voltage design, 125 A charging and discharging, and UPS-level 4 ms switching. APsystems’ residential solutions also include AI algorithm optimization and VPP interoperability for household energy management. The Lake 6 Plug-in ESS delivers average annual savings of 1,876 euros (~$2,176.16) per household, while its 6 kWh AC-coupled design uses 314 Ah cells, 2500 W rated output and up to 8,000 charge-discharge cycles.

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U.S. renewables buyers encouraged to act fast in a complex market – pv magazine USA

Policy changes in the One Big Beautiful Bill Act (OBBBA) and fluctuating pricing created uncertainty for corporate renewable energy buyers in the United States in the first half of 2026.
Trio’s Global Renewables Market Report, however, notes that a critical window is now open and aims to provide these decision makers with strategic guidance that includes actionable next steps.
Today, tax credit requirements and construction deadlines are increasing risk, cost and execution for renewable energy projects, causing developers to rush to complete projects prior to required deadlines. Other disruptors of U.S.-based projects include supply chain-related issues and permitting delays, which pressure completion timelines.
The Trio report states that U.S. renewable buyers face a “critical-decision-making window” over the next four years. For example, procurement strategies are already affected by proposed revisions to the GHG Protocol’s Scope 2 guidance as well as by the expanding state-level clean energy initiatives. 
That four-year window opened this year with innovative approaches to renewable energy contracts. Trio says companies will continue to look for ways to better match renewable energy to time of us and some may may choose to bundle solar or wind with battery storage, so clean energy is available when the sun isn’t shining or the wind isn’t blowing.
By 2028, many of the projects that began construction before the July 4 start of construction deadline will be contracted and progressing toward completion. New projects will face evolving policy and market conditions, “potentially at a significantly higher price due to the lack of federal tax credit eligibility for the newly developed projects,” the report says.
Furthermore, the results of interconnection queue reform in different regions may begin to manifest in 2028, which the report notes could influence project pacing and regional development.
2029 offers meaningful opportunity, although solar and wind options on new projects will be limited or much more expensive than the current market, the report states. However, buyers still have clear, actionable space in 2029 to secure value and work toward decarbonization goals.
Trio advises that buyers can focus on projects aligned with the published OBBBA credit timelines and expand their procurement strategy. 
By 2030, buyers may increasingly evaluate a broader mix of technologies as a part of long-term procurement strategies, the report says. Because greater transparency around the alignment of renewable energy contracts and electricity consumption/emissions reporting, the report expects that the market will place a premium on “well-structured contracts, credible environmental attributes and clear documentation of project eligibility.”
RECs
With the drop in renewable energy project buildout since passage of the OBBBA, the supply of renewable energy credits (RECs) may be affected, the report states. At the same time, both supply and voluntary demand remain healthy with buyers purchasing RECs despite federal policy challenges. Prices of renewable energy credits will remain favorable although volatility will be seen in some markets, the report says.
Community solar
Community solar is an increasingly popular renewables sector in the U.S., which surpassed 10 GW of cumulative community solar installed in 2025. With more state policy support, new players are entering the market. Mature markets are supporting larger projects with better billing structures and easier participation. 
Trio notes that 2026 offers opportunities for buyers to secure local, cost-effective energy solutions in established and emerging markets and recommends the following:
PPAs
PPA pricing in the U.S. has been stable in select regions, according to Trio, although challenges such as interconnection congestion and concentrated corporate demand remain. 
The report finds five factors affecting pricing of PPAs.
“In the U.S., evolving tax credit eligibility and execution risk are raising costs and constraining supply,” said Joey Lange, senior managing director, sustainability and clean energy at Trio. “Potential buyers who wait to commit may find it more difficult and expensive to meet clean energy goals as rules tighten and markets narrow over the next four years, and they should consider moving forward with procurement promptly.”
Buyers who act sooner rather than later will be better positioned, the report notes, as development and procurement deadlines are tightening.
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Solar project aims to cut CH power costs by P150M – SunStar Publishing Inc.

Solar project aims to cut CH power costs by P150M  SunStar Publishing Inc.
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Stabilising perovskite solar cells with chlorine – pv magazine Australia

Aresearch team from Rice University in Texas has managed to bypass the formation of a yellow phase during the degradation of formamidinium lead iodide (FAPI) single-junction perovskite solar cells. FAPI cells have a near-optimal bandgap of 1.45 to 1.5 eV and outstanding thermal stability; however, their useful black crystal structure is unstable and tends to transform into an inactive yellow phase at room temperature.
“The key novelty of this work is that it shows that by using specific additives, both the formation pathways and degradation pathways can be tailored. This study demonstrates for the first time that chlorine is incorporated into the perovskite lattice, creating an energetically uphill degradation pathway,” said corresponding author Aditya D. Mohite to pv magazine.
“In this co-additive approach, formamidinium chloride enables a stepwise transition pathway and confirms chlorine incorporation, while the two-dimensional perovskite serves as a template to guide crystal growth. Together, both additives induce compressive strain, thereby stabilising the system.”
Mohite likened the stepwise phase transition to climbing a staircase one step at a time with control and ease, rather than trying to jump several steps at once.
“The combined effect of the two additives promotes superior crystallisation through a uniform and gradual transition pathway, inducing compressive strain and imparting exceptional stability to the system,” he said. “This study demonstrates for the first time that chlorine is incorporated into the perovskite lattice, creating an energetically uphill degradation pathway.”
At the beginning of their study, the team conducted in situ formation and film characterisation studies with several additives with and without chlorine. According to their findings, a 15 mol % FACl and 0.5 mol % BA2PbI4 combination, or FAPI-CA film, exhibited a superior crystallisation pathway across all polytypes.
Based on this finding, they then conducted accelerated degradation studies by exposing the films to 15-sun illumination under an inert atmosphere while gradually increasing the temperature from 65 C to 75 C, and finally to 90 C, over more than 400 hours, using X-ray diffraction measurements to track structural changes and degradation pathways over time.
“This study reveals that the chlorine is incorporated within the lattice of the perovskite. Earlier works had suggested that chlorine  leaves the lattice. The presence of chlorine in the lattice induces a stepwise phase transition pathway, thereby reducing the microscopic yellow-phase (or delta phase) defects,” Mohite explained.
“Moreover, the chlorine also changes the conventional degradation pathway through the yellow phase; this co-additive strategy avoids that pathway altogether and surprisingly enables a different energetically unfavorable transition mechanism, thereby creating the best possible scenario for the perovskites in terms of stability.”
Following that, the group tested the FAPI-CA films in a device stack with an architecture consisting of a fluorine-doped tin oxide (FTO), a mixed phosphonic acid–carbazole self-assembled monolayer hole-selective contact, a FAPI absorber, a buckminsterfullerene (C₆₀ ) electron transport layer (ETL), a bathocuproine (BCP) buffer layer, and a copper (Cu) metal contact.
The best device achieved a power conversion efficiency of 25.1% with an average of 24.1% across 40 devices. “Perovskite solar cells fabricated using this dual-additive approach retain 98% of their initial efficiency after 1,200 hours of accelerated aging under open-circuit voltage conditions at 85  C,” said Mohite.
The research findings were presented in “Bypassing the yellow phase for extremely stable formamidinium lead iodide perovskite solar cells,” published in Science. Scientists from the United States’ Lawrence Berkeley National LaboratoryNorthwestern University, and DirectH2; the United Kingdom’s University of Cambridge; and France’s University of Lille, University of Rennes, and Institut National des Sciences Appliquées Rennes have also participated in the study.
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Sungrow enters PV module production with AI-enabled ‘smart’ product – PV Tech

Chinese PV inverter and BESS manufacturer Sungrow has entered the PV module manufacturing market with a new “smart module” product, dubbed Pulson.
Unveiled ahead of the SNEC 2026 event in Shanghai, China, Sungrow Renewables, a subsidiary of Sungrow, presented what it called the world’s first self-developed high-efficiency smart module.

During the presentation of the new smart module, the company was also awarded what is said was the world’s first certification for high-efficiency smart modules from TÜV SÜD.
Hurry Xu, VP at TÜV SÜD Greater China, said: “Sungrow Smart Module demonstrates unique technological advantages and delivers systematic breakthroughs spanning precise diagnostics, proactive safety, and lifecycle-data-driven optimised value creation. It fully embodies the philosophy of ‘More Power, More Protection’ and marks the beginning of a new era of smart modules.”
For its first foray into module manufacturing, Sungrow Renewables’ Pulson smart module incorporates power electronics, materials science, AI algorithms and other core technologies, including several intelligent capabilities such as self-diagnosis, self-RSD (rapid shutdown device), self-cleaning, self-cooling and self-logging.
According to Sungrow Renewables, these new intelligent capabilities represent a “transformative leap from passive power generation units to active intelligent terminals”.
However, the company has not disclosed details on power efficiency or cell technology for the new Pulson solar PV module.
According to the company, AI-powered analytics enables precise diagnostics and fault localisation, which allows for anomalies to be detected within milliseconds.
Meanwhile, the self-RSD capabilities delivers dual-layer safety protection at both the module and plant levels, and mitigates electrical fire risks before they escalate.
In case of module failures, the faulty modules will autonomously disconnect while ensuring normal power generation for the other modules located in the string, and thus preserving the energy yield. Under extreme scenarios, total plant voltage can be reduced to human-safe voltage levels within 25 seconds.
Finally, the self-cleaning and self-cooling technologies combine nano-scale hydrophilic surface treatment with the world’s first “SilverAnt” cooling technology, improving power generation by nearly 6%.
“We have always adhered to ‘user mindset, systematic thinking’. We build better plants with modules that understand plants better, realising our core value of ’empowering customers’,” said Zhang Xucheng, chairman of Sungrow Renewables.
During the presentation, Sungrow also published a white paper on smart PV module technologies with TÜV SÜD and the Shanghai Artificial Intelligence Institute. The white paper proposes an industry smart module classification standard that provides a clear framework for the development and application of smart modules.
The classification would factor several metrics – including intelligence level or technology maturity – and categorise smart modules into four levels from L1 to L4. These levels are the following:
Along with the launch of a new smart module, Sungrow Renewables has also unveiled a new rooftop power plant solution called iBuilding BIPV 2.0. The new product delivers a 20% increase in installed capacity under the same rooftop area while balancing extreme safety with higher energy yields.
Both products offer a more efficient and safer clean energy experience for commercial and industrial customers, added the Chinese manufacturer.

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Qualitas Energy buys US solar project – reNEWS.BIZ

Qualitas Energy buys US solar project  reNEWS.BIZ
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