Webinar Reliable Solar Pv Structure Design and Innovation

Upcoming FREE webinar on “Reliable Solar PV Structure Design and Innovation” organized by Middle East Solar Industry Association (MESIA), powered by Solarabic سولارابيك.

We will discuss the effect of the new large format modules on the current PV structure design, improvements, new materials, lessons learned from cases in the Middle East and many more!

When: 5th October, 16:00 GST
Register here: http://ow.ly/M4HI50KSyK5

Speakers include:
Hans Jürgen Sauter, VP Middle East and Africa, Nextracker Inc.
Dinesh Thakare, Head – Design & Engineering (RT), CleanMax
Elena García Ortiz, Project Manager MEA, UL Solutions
Finn Chow, Sales Manager APAC Marketing, Antaisolar
Moderator: Ritesh Pothan, Director BD – APAC & AMEA, DroneBase

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Retired Marine gets help with solar panels after KMBC investigation – KMBC

Monty Montes and his wife contacted KMBC for help with solar panels that did not work
Monty Montes and his wife contacted KMBC for help with solar panels that did not work
Monty Montes and his wife contacted KMBC for help with solar panels that did not work
A retired Marine in Belton, Missouri, hopes his electricity bill goes down after a KMBC 9 News investigation.
Monty Montes and his wife received help immediately after KMBC’s story last week from the owner of a Parkville-based solar company, Solar Guys USA.
Jesse Wiederin, owner of Solar Guys USA, saw how Montes and his wife received solar panels from a company that has since gone bankrupt.
He offered to help Montes finish hooking up the solar system, even making calls to Evergy on his behalf. The utility company installed a new meter on Wednesday, and Montes is thankful for the help.
“I appreciate everything that has been done,” Montes said.
Montes and his wife have made monthly payments on a loan for the solar panels that will cost more than $42,000 including principal and interest.
“You gotta do your homework,” Montes said. “You gotta make sure that individuals are legit.”
Montes and his wife originally contacted KMBC 9 Investigates to get answers about their next steps. They have now hired an attorney and are seeking guidance for their solar contract.
Wiederin of Solar Guys USA encouraged anyone else considering solar system to do your research, check reviews and don’t rush into a decision. He said reputable solar installers abide by codes of ethics and make sure customers understand the entire process.
“If somebody is trying to rush you through the process, then it’s being done wrong,” he said.
Bob Solger, founder and emeritus board member of the Missouri Solar Energy Industries Association and managing partner of Solar Design Studio reiterated that to KMBC on Wednesday. Solger says you should always look to see if the company is part of the MSEIA in Missouri, or Clean Energy Business Council in Kansas, both organizations that abide by codes of ethics.
KMBC continues to investigate problems with solar installations or high debt loans.
If you are a victim of solar panel loan fraud or your solar panel system is not working as advertised, email investigative reporter Matt Flener at investigates@kmbc.com.
Hearst Television participates in various affiliate marketing programs, which means we may get paid commissions on editorially chosen products purchased through our links to retailer sites.

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Assessing the effectiveness of India’s solar Production Linked Incentive scheme – ieefa.org

Launched in 2021, the Production Linked Incentive (PLI) scheme for high-efficiency solar modules has attracted strong industry interest and revived investor confidence in domestic solar manufacturing. However, capacity additions remain below targets, with only 56% of module and 14% of polysilicon capacity achieved as of June 2025.
In June 2025, India’s PV capacity reached 3.3 gigawatts (GW) polysilicon, 5.3GW wafer, 29GW cell, and 120GW module, with the PLI scheme driving all upstream capacity.
Future iterations of PLI must adopt a comprehensive manufacturing-linked framework that integrates fiscal support, upfront capital subsidies, ancillary development and longer policy tenures.
The PLI scheme has reinforced the government’s push for self-sufficiency, spurring an upsurge in domestic module capacity and investment inflow into the sector. At the same time, its full potential is yet to be realised due to delays in upstream integration, policy uncertainties, technical constraints, and volatility in global raw material prices.
This report from JMK Research and the Institute for Energy Economics and Financial Analysis (IEEFA) finds that while the solar PLI scheme has helped lay the groundwork for domestic PV manufacturing, it continues to face significant operational and policy challenges.
The scheme channels government support towards measurable industrial output, helping build durable, long-term manufacturing capacity. 
India’s solar manufacturing capacity has expanded significantly since 2022, with current operational capacity reaching 120 gigawatts (GW) for modules and 29.3GW for cells (as of June 2025). Post-2022 capacity additions totalled 82GW in modules and 22.7GW in cells, representing a 216% and 344% increase, respectively, from 2022 levels.
Whatever limited polysilicon and wafer capacities exist in India have come solely through the PLI scheme — underscoring India’s continued upstream dependence on imports — while about 36% of total cell and 24% of module capacity originate from PLI allocations. 
However, the PLI scheme for solar PV manufacturing faces implementation challenges like high capital intensity of upstream integration, inadequate incentives, inconsistencies in trade policy, import dependency, and global raw material price volatility.
Policy asymmetries — such as unrestricted imports for polysilicon and wafers alongside module restrictions under the Approved List of Models and Manufacturers (ALMM) — and frequent ALMM revisions have created uncertainty for domestic manufacturers. Besides, the scheme’s emphasis on fully integrated wafer-to-module facilities requires steep upfront investments, while incentives cover only a small fraction of production costs.
India’s reliance on imported machinery, components, and Chinese technical expertise has further slowed capacity ramp-up, a situation worsened by visa restrictions and limited equipment availability.
Meanwhile, global price volatility — especially in polysilicon and wafers — and China’s dominance in upstream production expose Indian manufacturers to cost spikes and supply disruptions. Limited scale in domestic polysilicon production also undermines cost competitiveness, highlighting the structural challenges in achieving a self-reliant and globally competitive solar manufacturing ecosystem.
Delays in implementing PLI solar PV facilities have also limited the scheme’s economic impact. As of June 2025, only 31GW of the targeted 65GW module capacity was commissioned, attracting roughly Rs48,120 crore (~US$5.5 billion) in investments and creating 38,500 direct jobs — far below the targets of Rs94,000 crore and 1.95 lakh direct jobs, the report states. 
The report underscores that PLI non-compliance can lead to substantial financial losses for solar PLI awardees. According to JMK Research, across both tranches, solar PLI awardees can incur a monetary risk of up to Rs41,834 crore (~US$4.80 billion) cumulatively, combining direct penalties (bank guarantees encashment), lost incentives, and unrealised revenue from sales.
The scheme’s trajectory hinges on comprehensive recalibration rather than timeline extensions alone. Future PLI iterations should focus on improving cost competitiveness, upstream integration and market resilience. Key measures include tax credits, low-cost financing, and risk buffers against global price volatility; layered incentives and longer policy horizons to encourage full value-chain participation; and support for critical components to foster an integrated domestic supply chain.   
With the emerging 50% US tariff on Indian solar exports adding pressure, the policy environment is becoming increasingly complex and will require strategic adaptation. The report notes that India must develop institutional mechanisms for coordinated policy implementation, and better align incentives with manufacturing timelines and market protection measures, while providing long-term policy certainty.

Vibhuti Garg is the Director for South Asia at the Institute for Energy Economics and Financial Analysis (IEEFA), where she leads efforts to advance sustainable development through strategic policy interventions in energy pricing, subsidy reforms, innovative business models, and market design.

Prabhakar Sharma is a Senior Consultant at JMK Research with expertise in tracking the renewable energy and battery storage sectors.

Chirag specialises in power sector analysis, decarbonisation, VRE integration, and regulatory affairs. He focuses on renewable energy policy, tenders, & project tracking.

Chirag specialises in power sector analysis, decarbonisation, VRE integration, and regulatory affairs. He focuses on renewable energy policy, tenders, & project tracking.

Aman is a Research Associate at JMK Research with expertise in tracking trends in the renewable energy sector.

Aman is a Research Associate at JMK Research with expertise in tracking trends in the renewable energy sector.

Soni Tiwari is an Energy Finance Analyst with IEEFA India, examining the energy sector with a particular focus on renewable energy transition and the opportunities and barriers for different states and companies.

Soni Tiwari is an Energy Finance Analyst with IEEFA India, examining the energy sector with a particular focus on renewable energy transition and the opportunities and barriers for different states and companies.

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Queensland dominates list of best-performing utility-scale solar PV plants in Australia – PV Tech

New data released by research firm Rystad Energy has shown that four of the top five best-performing Australian utility-scale solar PV plants in 2024 were located in Queensland.
The top three performing assets, in terms of AC capacity factor, included Spanish solar PV developer X-Elio’s 200MW Blue Grass plant, Greek industrial conglomerate Mytilineos’ 110MW Moura plant both in Queensland, and Neoen’s 36MW Griffith solar PV plant in New South Wales (NSW). PV Tech reported earlier this month that the Griffith site was the best-performing solar PV asset in December 2024, a month dominated by New South Wales.

The reasons behind the Blue Grass PV plant being the top-performing asset have not been disclosed. However, the regional council attributes its success to the “fantastic conditions” for renewable energy production in the Western Downs region of Queensland. Located in Hopeland, the solar PV plant is operated by X-Elio, which plans to enhance its strong generation potential by adding a 350MW solar-plus-storage project called Sixteen Mile near the existing facility.
According to David Dixon, a senior analyst at Rystad Energy, across 2024, Neoen emerged as the highest total volume by equity ownership with 1.4TWh. Chinese developer Beijing Energy International Holding (BJEI) follows this with 1.2TWh and Atmos Renewables with 1TWh. You can find a full breakdown of the top 20 performing assets in 2024 below.
Dixon previously said that, on an annual basis, renewable energy generation across the National Electricity Market (NEM) and Wholesale Electricity Market (WEM) reached 92TWh or 39% of total generation.
Casting an eye to the future, Dixon predicts that this 39% figure will increase to around 43-45% in 2025, with several gigawatts of solar PV, including rooftop and utility, as well as wind capacity, to be energised and commissioned across 2025. This will also be aided by utility-scale battery energy storage capacity doubling to over 6GW by year-end.
As seen in the graph above, all of the top 20 performing utility-scale solar PV assets are based on the NEM, with there being a distinct lack of high-performing assets on the WEM, which operates exclusively in Western Australia.
Although several large-scale solar PV projects are being explored in the state, including a 70GW renewable energy hub larger than Wales, much of the state is still powered by coal and gas with smaller contributions from solar PV and wind generation.
Despite this, the Western Australian government has still emphasised the importance of renewable energy generation in the state’s energy transition. In July 2024, the state government inked a Renewable Energy Transformation Agreement with the Federal government to support renewable energy generation technologies, such as solar.
Under the terms of the deal, the Federal government will underwrite developers to build a minimum of 6.5TWh of new wind and solar projects in Western Australia and 1.1GW of new storage to help keep the electricity grid stable.
With Western Australia set to retire its state-owned coal-fired power stations by 2030 and replace them with utility-scale renewable energy generation projects, the agreement will support the state in ensuring grid stability is maintained throughout the transitional period.
Indeed, energy storage will be a key aspect of the energy system, as evidenced by the number of large-scale projects being developed, such as Synergy’s 500MW/2,000MWh Collie battery energy storage project. You can learn more about energy storage in Western Australia on our sister site, Energy-Storage.news.
Western Australia’s energy transition trajectory could change with the upcoming election scheduled for 8 March 2025. The centre-right Western Australian Nationals Party and its leader, Shane Love MLA, announced earlier this month that they intend to implement a comprehensive State Planning Policy for renewable energy projects if they win the upcoming state election.
Shane Love said the policy would establish a consistent framework for large-scale renewable energy projects and address significant gaps in the current planning system.
Western Australia’s election could be significant as some of the largest renewable energy proposals are set to be located within the state. Whether it be a newcomer or the currently elected Labor, the government’s ambition must match the industry, which has questioned the government’s support throughout 2024.
For example, Australian mineral exploration company Province Resources shelved its multi-gigawatt solar and wind-powered green hydrogen project in the state due to a lack of government support.
The shortcomings in the performance of the WEM’s utility-scale solar PV assets are contrasted by the NEM, which continues to go from strength to strength in its energy transition. All twenty of the top-performing solar PV assets were on the NEM, almost evenly split between New South Wales and Queensland, with Victoria securing tenth place via its 60MW Gannawarra solar PV plant.
The Australian Electricity Market Operator (AEMO) said in August 2024 that 1.2GW of new large-scale solar projects had been brought online and connected to the NEM in the past year. Despite this strong rollout, this was trumped by the 3.9GW/13.5GWh of battery energy storage systems (BESS) that were brought online.
Casting an eye to the future, UK-based research group Cornwall Insight said last year that it is likely that the NEM will add 150GW of solar PV, wind and energy storage capacity by 2043. A report outlines that the installed capacity for these technologies is expected to rise from 52GW in 2025 to 208GW by 2043, representing a 300% increase.
Australia’s NEM covers South Australia, Tasmania, Victoria, New South Wales, ACT, and Queensland and is predominantly oriented towards a baseload power grid comprising mainly coal generators.
A key driver of renewables energy generation growth is the withdrawal of coal-fired power stations, which are likely to close by 2038, as indicated in an AEMO report released earlier this year and further backed up by the Clean Energy Council (CEC) CEO Kane Thornton, who told PV Tech that AEMO’s prediction was “same timeframe that we [the CEC] are working towards”.
This is contradicted by Cornwall Insight’s Thomas Fitzsimons, who exclusively told PV Tech that coal-fired power will still play a role in the electricity mix for the next few decades, with the last to shut in the 2050s.
The rise in renewable energy generation and the NEM’s shift away from coal-fired power have led the Australian government to commence a review of the NEM to identify how it will operate in the coming decades and facilitate the uptake of solar PV.
The review will examine keeping household bills low while better-managing rooftop solar and utility-scale renewable energy generation uptake.

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Henrico homeowners cut electricity bill with free solar panel program – WRIC ABC 8News

Henrico homeowners cut electricity bill with free solar panel program  WRIC ABC 8News
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Solar key to space-based AI – pv magazine USA

Elon Musk, the CEO of both Tesla and SpaceX, raised some eyebrows at this year’s World Economic Forum (WEF) in Davos, Switzerland, when he predicted “that the lowest cost place to put AI will be space and that will be true within two to three years, three at the latest.” pv magazine reported on Musk’s vision on our global website http://www.pv-magazine.com on Jan. 26, 2026, and exactly one week later SpaceX announced that it was acquiring xAI “to form the most ambitious, vertically integrated innovation engine on (and off) Earth, with AI, rockets, space-based internet, direct-to-mobile device communications, and the world’s foremost real-time information and free speech platform.”
SpaceX hopes to achieve “full reusability” for its Starship rocket in 2026, which could greatly reduce the cost of delivering data center and solar infrastructure to space.
Image: Steve Jurvetson / FlickrCC
From the magazine
Solar PV plays a central role in the growing buzz around building data centers in space. The Feb. 2 statement from SpaceX and its founder Elon Musk states that “current advances in AI are dependent on large terrestrial data centers, which require immense amounts of power and cooling. Global electricity demand for AI simply cannot be met with terrestrial solutions, even in the near term, without imposing hardship on communities and the environment.”
As Musk pointed out in an interview at WEF with Larry Fink, the founder and CEO of the global investment firm BlackRock, “when you have solar in space you get five times more effectiveness, maybe even more than that, than solar on the ground. It’s always sunny, so you don’t have a day-night cycle or seasonality or weather and you get about 30% more power in space because you don’t have atmospheric attenuation of the power. The net effect is any given solar panel will do five times more energy in space than on the ground.”
Space also offers excellent thermal conditions. Musk elaborates: “It’s a no brainer for building solar powered AI data centers in space, because, as I mentioned, it’s also very cold in space. When you’re in the shadow, it’s very cold in space, 3 degrees Kelvin. So you have solar panels facing the sun and then a radiator that’s pointed away from the sun, so it has no sun incidence, so it’s just cooling, it’s a very efficient cooling system. The net effect is that the lowest cost place to put AI will be space and that will be true within two to three years, three at the latest.”
But how do we get all this gear into space? Much will depend on the pace of innovation at SpaceX as the company heads for a blockbuster IPO later this year. In Davos, Musk revealed that SpaceX is on course to further dramatically reduce what he calls the “cost of access to space”: “Hopefully this year we should prove full reusability for Starship, which would be a profound invention, because the cost of access to space would drop by a factor of 100 when you achieve full reusability.” He goes on to say: “That gets the cost of access to space below, we think, the cost of freight on aircraft, so under $100 a pound easily.”
Starship is the largest rocket ever built and would be the vehicle to position solar-powered AI infrastructure in space. Ultimately, solar-powered AI infrastructure on the moon and planets like Mars could follow, especially as smart AI-powered robots become commonplace to build and maintain such space-based assets. The first step in this roadmap will be solar-powered AI satellites. According to Musk, “one of the things we’ll be doing with SpaceX within a few years is launching solar-powered AI satellites. Space is really the source of immense power and then you don’t need to take up any room on earth, there’s so much room in space, and you could scale to ultimately, I think, hundreds of terawatts a year.”
As the Wall Street Journal reported on Feb. 2, the day SpaceX announced the acquisition of xAI, the combination creates a $1.25 trillion company even before the company goes public in what will most likely be the biggest IPO ever, topping Saudi Aramco’s IPO in 2019 in terms of company valuation. Much of the money raised with this IPO will go into this solar-powered space-based AI vision, since sending swarms of AI satellites into space will cost billions of dollars, not to mention the R&D and product development that is required to pull this off.
It will also require the massive manufacturing of solar panels. During the interview at WEF, Musk revealed that “the SpaceX and Tesla team, both separately, are working to build to 100 GW a year of solar power in the US, of manufactured solar power. That’ll probably take us three years or something. These are pretty big numbers and I’d encourage others to do the same.” Tesla’s record in PV manufacturing is less than stellar with plans to produce 1 GW of panels, first with Silevo technology and then with Panasonic, not materializing in a Buffalo, New York, factory acquired by Tesla in 2016 as part of its acquisition of SolarCity. However, in an exclusive interview with pv magazine USA in late January, the Tesla Energy team revealed details of the new Tesla Solar Panel and plans to get the Buffalo Gigafactory ramped-up to 300 MW per year in an initial phase.
But that is back on earth. In space, different panels will be needed and we can only speculate what kind of cell and panel technology SpaceX has up its sleeve. Scale will certainly play a pivotal role in space-based PV and AI, just as it has in PV and battery storage on Earth. As production scales, economies-of-scale kick in and the cost of the technology steadily declines. In the SpaceX Feb. 2 statement, the scale of the undertaking is sketched out:
“The basic math is that launching a million tons per year of satellites generating 100 kW of compute power per ton would add 100 gigawatts of AI capacity annually, with no ongoing operational or maintenance needs. Ultimately, there is a path to launching 1 TW/year from Earth.”
Both the scale and ramp-up required are massive. As the same statement mentions, “even in 2025, the most prolific year in history in terms of the number of orbital launches, only about 3,000 tons of payload was launched into orbit, primarily consisting of Starlink satellites carried by our Falcon rocket.”
Another venture focused on solar-powered space-based AI is Starcloud Inc., based in Redmond, Washington. As their September 2024 white paper describes, “orbital data centers can be scaled almost indefinitely without the physical or permitting constraints faced on Earth, using modularity to deploy them rapidly.” It goes on to describe a 5 GW AI data center with a solar array measuring 4 km by 4 km, far smaller than a 5 GW terrestrial AI data center would need, given the much higher capacity factor and peak generation in space compared to Earth. This data center would span hundreds of individual satellites, all on a dawn-dusk sun-synchronous orbit to optimize PV generation.
In its 2024 white paper, Starcloud advocates the use of thin film cells, since “these cells use silicon wafers <25 µm thickness and achieve power densities >1,000 W/kg, allowing for highly mass and volume efficient arrays.” Thin-film panels can also offer flexibility, a key feature to achieve a compact configuration during launch.
Obviously, plenty of innovation has to happen in the field of solar-powered space-based AI to achieve a competitive position versus Earth-based AI data centers. This includes innovation at the photovoltaic cell and module level, the PV array configuration, thermal management, a big topic both on Earth and in space, the reusability of rockets, just to name some of the bigger challenges. Latency is another one, since some AI users, such as hedge funds, will require very fast responses from the data center in space.
The enormous capex involved probably triggered the merging of SpaceX and xAI in February. With a valuation of $1.25 trillion for the combined entity, a SpaceX IPO later this year will give the company a rather unique war chest to pursue its spatial ambitions. As in terrestrial PV, once the project is built and comes online, the opex is much less of an issue. In fact, in its white paper, Starcloud estimates the energy required for a 40 MW AI data center cluster to be $140 million over ten years for a Earth-based cluster paying $0.04/kWh for its electricity. In space there is simply the $2 million capex for the PV array with no opex at all. Ditto for water usage, a major cost of terrestrial AI data centers. Here the white paper estimates 1.7 million tons over ten years with each kWh consumed requiring 0.5 liters of water. In space there is only the capex of deploying a radiator to dissipate waste heat.
On the other hand, the Starcloud white paper allots $5 million for the “single launch of compute module, solar and radiators”, a figure that would probably come down a lot were full rocket reusability to be achieved in 2026 or 2027. At the end of the day, enormous capex will be required and on that front SpaceX clearly has an edge over the competition. Its vertical integration and deep pockets make the company the frontrunner to realize competitive solar-powered space-based AI in the not-too-distant future.
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AEMO: Grid-scale solar PV on Australia’s NEM sets new quarterly high with over 2GW – PV Tech

The Australian Energy Market Operator (AEMO) has detailed in a new report that grid-scale solar PV output achieved a new quarterly high average on the National Electricity Market (NEM) of 2,212MW, an increase of 9% year-on-year (YoY).
Revealed in the organisation’s latest Quarterly Energy Dynamics, which encompasses Q4 of 2024, AEMO said that the increase in variable renewable energy generation from grid-scale solar PV rose by 259MW YoY due to newly connected facilities and those progressing through the commissioning processes.

The majority of the increase was found in the state of New South Wales. This was predominantly through the availability of solar generation from the 300MW Wellington North PV plant, owned by Beijing Energy International Australia, and Fotowatio Renewable Ventures Australia’s 353MW Walla Walla PV plant, which was first energised in November 2024.
Victoria also saw growth in the amount of solar-derived renewable energy generation. This was aided by the 130MWdc Glenrowan and Enel Green Power Australia’s 93MW Girgarre solar PV power plants. South Australia’s 87MW Tailem Bend 2 plant, owned by Singaporean independent power producer (IPP) Vena Energy, also contributed to the growth of solar generation on the NEM. Plans are in place to add a 41.5MW battery energy storage system to this site.
The growth in variable renewable energy generation on the NEM for this quarter could have been higher if it were not for an increase in network curtailment and economic offloading.
AEMO said that, together, these two factors accounted for an 89MW decrease in generation YoY. Economic offloading saw a marginal increase of 24% to an average of 343MW. Economic offloading was found to be more prevalent in New South Wales, which saw a substantial average increase of 84% to 79MW. South Australia saw an average increase of 54% to an average of 78MW.
However, economic offloading decreased in the state of Victoria, down 8% YoY, representing an average of 52MW.
Curtailment for grid-scale solar generation increased by 23MW to 176MW across the NEM, representing a 15% YoY increase. Interestingly, curtailment decreased by 26MW to an average of 37MW in the last quarter of 2024.
Grid-scale solar was accompanied by a strong quarter for distributed solar PV in Australia.
Indeed, AEMO said that distributed PV output was at an all-time quarterly high in all NEM regions, with a NEM-wide average output of 4,054MW, 18% higher than the previous record of 3,433MW set in Q4 2023.
As a result, average operational demand was slightly lower across the NEM, at 19,683MW, down 0.3% from Q4 2023.
This growth in distributed solar PV output and a reduction in coal availability mean that renewable energy sources reached a record 46% share of the overall NEM supply mix, with the contribution of coal-fired generation dipping below 50% for the first time, AEMO said.
On November 6 2024, renewable energy reached a record high, contributing 75.6% of the total generation in the NEM on a half-hourly basis. Distributed PV systems were responsible for 43% of this generation mix, while grid-scale solar and wind energy contributed 19% and 11%, respectively.
The final quarter of 2024 also proved to be positive for battery energy storage systems (BESS) in the NEM. AEMO’s report said the estimated net revenue, covering both energy and FCAS markets, for NEM grid-scale batteries reached AU$69.5 million (US$43.2 million), more than doubling the AU$31.5 million estimate for Q4 2023.
In the energy market, net revenue from batteries increased by AU$34.6 million, representing a 257% rise, bringing the total to AU$48.1 million. This amount accounts for 69% of the total estimated net revenue. The significant growth in revenue from energy arbitrage was primarily due to an AU$38.4 million increase (300%) from energy generation.
Additionally, charging during negative price periods contributed an increase of AU$3.9 million, resulting in total battery revenue of AU$7.2 million for the quarter. However, energy costs associated with charging at prices above AU$0/MWh also rose by AU$7.7 million, a 298% increase YoY.

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Ogle County Board: Bid for grant-funded Memorial Plaza project approved – Shaw Local

Shown is concept art for a grant-funded Memorial Plaza on the lawn of the historic Ogle County Courthouse in Oregon at 106 S. Fifth St. (Photo provided by Ogle County)
The Ogle County Board unanimously approved a $200,700 low bid Wednesday from O’Brien Civil Works for a Memorial Plaza project on the south side of the historic Ogle County Courthouse property.
The project will be funded by a grant for green space at the former location of the Ogle County Jail that was demolished in recent years. Any remaining costs will come from the county’s long-range capital expense fund.
The Memorial Plaza will include a circle and sidewalk going down the side to the front of the memorial. There will be a bronze eagle on a pedestal in the center. The Ogle County Historical Society will also be including a time capsule in the project involving America’s 250th anniversary.
Board Long-Range Planning Chairman Don Griffin said the project meets the requirements of the county’s campus plan and the green space grant. The project will have accessible walkways to existing memorials and the Memorial Plaza and also includes lighting for courthouse and memorial areas.
“This is something we’ve talked about for quite some time,” Griffin said. “That area is used by Autumn on Parade for people who want to sit or use the food court. It fits very nicely and meets the needs of the county and preserves the green space we have.”
The project will be broken into three phases due to needed funds and will involve fundraising. Three benches for the project have already been donated. Landscaping and shrubbery will be included as well.
The second phase would include a curved walkway into the memorial from the east, with a total of seven benches. The third phase would include landscaping and trees and shrubs, along with a canopy, the most expensive aspect of the project.
The board voted 17-4 to send a potential special-use permit for a 4.99-megawatt community solar energy facility in Mt. Morris Township back to the county’s zoning board of appeals for another vote.
Cypress Creek Renewables requested a special-use permit on agricultural-zoned land for a 35-acre solar project in the 2,900 block of North Willow Road. Board Zoning Chairwoman Patricia Nordman said the zoning board of appeals voted 3-2 to move the project to the county board level for potential approval, but two votes were called on the matter by the zoning board of appeals and there were concerns about the solar project’s impact on the area.
Nick Standiford, an attorney for Cypress Creek Renewables, spoke during the public comment portion of the meeting following the vote and asked the board to reconsider their decision, to no avail.
“There’s no reason we should have to go back before the zoning board to get the same vote,” Standiford said. “It’s a complete inconvenience for everyone. The concern was whether the solar farm would impact the trend of development outside Mt. Morris. The answer to that is no.”
Standiford said the Village of Mt. Morris sent a letter saying it had no plans for development in the area of the proposed solar development. He also cited a recent court decision that said special-use factors can’t be applied to solar farm projects. Recent state legislation aimed to remove local siting permission for solar farms, leaving only state standards.
“We think we satisfied the special-use factors, and certainly satisfied the state standards that apply and that the court says are the only things you have to consider,” Standiford said. “We think this is a really good project. It’s a good location and not around a lot of houses. We’re 1,700 feet away from the nearest neighbors. We know all solar farms aren’t created equal. But we think this a pretty darn good location.”
The matter will be on the zoning board of appeals’ March 26 agenda and, if approved, will be considered at a future county board meeting.
Griffin said during the meeting that a roof replacement project on the historic courthouse has been completed. A final inspection will be presented to the board at its April meeting along with final bill approval.
The historic Ogle County Courthouse in Oregon at 106 S. Fifth St. (Jeff Helfrich)
Sterling Commercial Roofing did the work for $813,125, with a $30,000 general contingency allowance. Griffin said last month that the project came in at about $20,000 less than expected. The project took place over the winter and involved scaffolding due to the historic courthouse roof’s complicated nature.
“It’s nice to have that project completed,” Griffin said.
Griffin said during the meeting that the county has plans to remodel its Pines Road building to move the county’s animal control department to that location. Veterans Affairs will fill the space in the historic courthouse left by the animal control department’s departure. That space will also require remodeling.
Griffin said a pre-construction meeting was recently held and the work will start at the Pines Road location on March 23 before it begins at the historic courthouse.
“The project will start on the south end of the Pines Road building and then move to the north end of the building,” Griffin said. “And then they’ll be working here at the courthouse for that part of the project. It’s nice to see the whole project starting to move forward.”

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Researchers make surprising discovery while studying sheep grazing alongside solar panels – The Cool Down

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It’s a win-win situation for both the farmers and the sheep.
Photo Credit: iStock
Farmers are turning to a new source of income via agrivoltaics, where solar power and agriculture combine to optimize land use, producing both energy and crops simultaneously. Some are taking it a step further by adding sheep to the mix. 
With these fluffy friends maintaining the land beneath the solar panels, farmers are reaping substantial financial benefits, according to a 2025 study.
The study’s findings, as reported by The Conversation, reveal an unexpected outcome. Joshua Pearce, engineering professor at Western University, in collaboration with professional shepherd Rafael Lara, found that combining solar panels with grazing sheep yielded incomes equivalent to those of doctors, lawyers, and engineers.
The financial aspect is just one of the reasons this practice is worthwhile. 
Agrivoltaics, a portmanteau of “agriculture” and “photovoltaics,” is giving new life to food production systems while producing clean, efficient energy in the process. Certain crops grown under solar panels have been found to be more robust, thanks to protection from extreme heat and less-demanding irrigation needs.
With sheep added into the mix, however, farmers can benefit even more from the lowered cost of maintenance as the animals graze beneath the solar panels. 
It’s a win-win situation for both parties as the sheep typically prefer shaded areas to rest. 
Beyond the lowered agricultural management costs, farmers can also bring in extra cash from selling the sheep’s wool. Previous research has even shown that sheep produce cleaner, more consistent wool when grazing alongside solar panels.
The effects of agrivoltaics and solar shepherding can be felt beyond the farm, too. Community members can benefit from the significant tax revenue generated by solar farms, often capable of funding local projects and crucial infrastructure, PVFarm revealed. 
Communities can also take advantage of the fresh, local source of meat
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Given the economic benefits, resource management, and production of clean, consistent energy, the practice is becoming a no-brainer for farmers across the world.
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California moves ahead with balcony solar bill – PV Tech

The California Senate Energy, Utilities and Communications Committee has unanimously voted 14-0 (and 3 abstentions) in favour of a bill for balcony solar.
The new legislation, Senate Bill 868 (SB 868) – also known as the Plug and Play Solar Act – would allow people in California to install small systems of up to 1,200 watts (AC) to a building’s electrical system and exempt them from requiring to interconnect the small systems to the electrical distribution system.

Authored by California Senator Scott Wiener, the bill also sets clear safety standards and “clearing away unnecessary utility hurdles” by opening a new low-cost path for families to install solar panels. According to the bill’s analysis, there are around 14 million rental units – representing around 40% of households in the state – that could benefit from this bill and install a balcony solar.
The systems would be required to be certified by Underwriters Laboratories (UL) or an equivalent recognised testing laboratory and automatically shut down in case of a power outage in the grid to avoid any electrical issue.
“Imagine plugging an appliance into a standard wall outlet and instantly lowering your electricity bill,” said Bernadette Del Chiaro, senior vice president for California at Environmental Working Group.
“That’s exactly what balcony solar offers. You place a solar panel on a sunny balcony or patio, connect it to an inverter, plug it in, and start saving. No construction. No complicated installation. And if you move, you can take it with you,” she said.
Currently, only one US state has adopted legislation that authorises the use of plug-in solar without utility approval. Utah’s House Bill 340 was signed into law nearly a year ago and took effect in May 2025, while other states have pending legislation modelled after Utah’s law. However, some states, such as Washington and Arizona, have impeded the progress of similar legislation due to safety concerns.
In Europe, Germany has been the leading market for balcony solar installations since 2024 and had surpassed one million installations in June 2025, according to data from German trade body BSW Solar. Other European countries, such as France, Italy and the Netherlands, are also showing growing interest in these small systems.
More recently, the UK government has moved forward with the approval of plug-in solar for the domestic market and allowing these systems to be sold in supermarkets, as covered by our sister site Solar Power Portal.
More details on SB 868 and its progress can be found here.

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Cheap new modules are stalling the used solar market – pv magazine USA

Data from EnergyBin and Buckstop shows used panels accounted for just 1% of resale listings in 2025, as record-low prices for new modules undermine the economics of reuse.
Image: EnergyBin, LLC. / Buckstop, Inc.
Given that modules from the early 2010s solar boom are nearing the end of their expected lifespans, it’s no surprise that a repowering wave has seemed imminent for some time. We’ve all heard the saying: new is always better, and it seems solar buyers agree. The tsunami of mass panel retirements hasn’t crashed yet.  
According to new data from secondary solar market platform EnergyBin and urban mining startup Buckstop’s 2025 PV Module Price Index – Secondary Solar Market, used and legacy modules represented just 2% of resale supply listed on EnergyBin’s wholesale market last year, down from 5% in 2024 and 9% in 2022. 
While the report notes that 2022 first looked like the harbinger of a multi-year repowering trend reliant on panel decommissioning and remarketing, the used module supply on EnergyBin in the years following “failed to reflect such a trend.” 98% of modules listed on the platform last year were brand-new, never having been installed and largely originating from project cancellations or delays that leave developers with excess inventory.  
In total, 1.62 million modules were listed for resale on EnergyBin in 2025, a 16.8% increase from 2020. The downstream solar hardware market is slowly but surely expanding, though the growing glut of new modules may make it harder for resale economics to pencil out.  
“The global oversupply of modules has definitely resulted in a more challenging market for reuse,” explained Nick Kumleben, the co-founder and chief business development officer at Buckstop, who co-authored the report. However, he told pv magazine USA, the market seems to be improving so far in 2026, as new panel prices are likely to increase due to input cost inflation and new tariff measures. 
Overall, secondary market prices tend to be 20 to 70% less than primary market prices. This is particularly true for used equipment. According to the index, the average price for used modules dropped by 30% from January 2024 levels, falling to $0.058/W by the fourth quarter of 2025.  
That’s a razor-thin resale margin that can make remarketing and repairs difficult, uneconomical or not worth the time and money. That could be one reason why much of today’s used module supply appears to be bypassing wholesale marketplaces altogether to be exported or recycled directly.  
“The market could certainly be more transparent,” Kumleben said, especially “given the multiple trade classifications available to exporters of used panels and the sensitive nature of disposal decisions.” 
The report notes that the price of used modules will likely stay below 10 cents per watt “until the world market corrects for oversupply of new modules.” But not all used models will feel the squeeze equally.  
Panels less than ten years old with degradation rates below roughly 0.5% to 1% per year still retain some resale potential, particularly if they remain defect-free. Buyers are increasingly prioritizing long-term reliability, and Kumleben noted that panels with lower degradation rates have more resale opportunities later in their lifecycle.  
“The race to the bottom has resulted in ample errors occurring within a few years of deployment,” the authors write, pointing toward the move from a fully tempered 3.2 mm glass to a 2.0 mm double-glass design that’s made modules more fragile.  
Technology shifts also play a role, with P-type modules making up 72% of all resale inventory across black, bifacial and monofacial categories. As the market transitions more fully to N-type architectures, sellers are expected to speed up the phase-out of older technology. Per the May 2026 International Technology Roadmap for Photovoltaics (ITRPV) 16th Edition, the market share of PERC cells is expected to drop to 10% by 2027 and disappear entirely by 2035.  
“Technology transitions do result in challenges for resale economics, but it’s important to remember that in most resale markets, the competition is not always from new modules,” Kumleben noted. He pointed out that often, “the alternative to a used panel is a diesel generator or no power supply at all.” 
Legacy modules, too, are struggling in the resale market and accounted for a mere 1% of supply last year. While they may be new and unused, legacy panels often can’t keep pace with newer, higher-efficiency modules; resale gets impractical.  
Secondary market dynamics could still shift, as declining new module prices may even out as Chinese manufacturers face sustained losses. But sharply rising silver prices, which have shot up more than 200% over the past year, are making manufacturing more expensive. Pre-owned solar could create an opportunity, the report notes.  
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LJLA plugs into clean power as Aviation Minister switches on airport solar farm – TheBusinessDesk.com

The Minister for Aviation, Maritime and Decarbonisation, Keir Mathew, today (March 19) officially opened Liverpool John Lennon Airport’s (LJLA) new £3m solar farm during a visit to the airport.
The airport’s investment in the solar farm is a key part of its Decarbonisation Plan and a zero carbon future for the airport operation by 2040.
Solar panel experts Activ8 Energies, in partnership with SSE Airtricity, designed and installed the new solar farm, which is located within the airport perimeter fence on land to the east of the runway.
It is capable of generating up to 3MW (megawatts) of electricity, powering up to 25% of the airport’s current overall electricity demand.
The Minister opened the solar farm as part of a wider visit to also find out about the airport’s recovery since the pandemic, with 2025 being the airport’s busiest year ever.
John Irving, LJLA CEO, said: “We really appreciate The Minister taking the time to meet with us today to see at first hand our recent progress and our commitment to minimising energy use and how we are working to reduce our CO2 emissions.
“Our new solar farm is the next part of our journey towards a zero carbon future by 2040.”
Ciaran Marron, CEO of Activ8 Energies, said: “We’re proud to have partnered with SSE Airtricity and Liverpool John Lennon Airport to deliver a system that will generate clean electricity on site for decades to come.
“With an installed capacity of up to 3MW, the solar farm will make a significant contribution to reducing the airport’s carbon footprint while strengthening its energy resilience.”

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MTerra Solar now delivering power to the Luzon Grid – The Manila Times

MERALCO PowerGen Corp, (MGEN), through its affiliate Terra Solar Philippines Inc. (MTerra Solar), has successfully energized the MTerra Solar project as a generator — marking the moment the facility went live and began delivering electricity to the grid.
The milestone marks the first electron from MTerra Solar sent through to the Luzon grid, signaling that the facility is now live — just 16 months after its groundbreaking. This phase is set to supply up to 85-megawatts (MW) of mid-merit power to the grid.
Following its energization as a generator, the project will continue to ramp up its output in the coming months in close coordination with the National Grid Corp. of the Philippines, in line with its System Impact Study and operational plan.
The energization of the project as a generator marks a significant step in strengthening the country’s energy security by adding domestic power capacity and supporting energy independence.
The facility is projected to supply clean energy to approximately 2.4 million households while avoiding an estimated 4.3 million tons of carbon emissions annually.
With Phase 1 on track for completion this year and Phase 2 already under construction, MTerra Solar is expected to steadily increase its capacity.

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Greenergy-Solar Duna to build energy storage facilities in Paks – ceenergynews

Greenergy-Solar Duna to build energy storage facilities in Paks  ceenergynews
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JinkoSolar bags federal approval for 1,440MWh solar-plus-storage site in Australia – Energy-Storage.News

The Australian government has granted approval for the 1,440MWh Garoo solar-plus-storage project, which is being pursued by Jinko Power Australia, the regional entity of Chinese solar manufacturer JinkoSolar.
Located approximately 40km south of Tamworth in New South Wales, the hybrid renewable energy facility will feature a 134MW solar PV power plant paired with a 360MW/1,440MWh battery energy storage system (BESS).
The Garoo solar-plus-storage project is being developed via a collaboration between Jinko Power and Sydney-headquartered developer Bright Path Renewables.
The approved development will span 306 hectares of predominantly cleared agricultural land and include approximately 234,000 solar modules. Once operational, the facility is expected to generate around 380GWh of renewable energy annually.

According to planning documents, the BESS will be located at the northern point of the site near Garoo Road. The solar PV power plants will be split into two, with Tamarang Creek serving as a natural division.
The project was submitted to the Environment Protection and Biodiversity Conservation (EPBC) Act in June 2025. The EPBC Act, administered by the federal government, aims to protect nationally threatened species and ecological communities. Approval must be received before a project can be developed.
Construction on the site is expected to commence in late 2026, with an estimated 18-month construction and commissioning period. The project has a planned operational lifespan of approximately 30 years, with full operations expected to begin in 2028.
The Garoo Solar Farm will connect to the National Electricity Market (NEM) via an existing 330kV overhead transmission line, minimising the need for additional transmission infrastructure.
The facility is situated in a rural region that is rapidly emerging as a renewable energy hub. Neighbouring developments include Total Eren’s 780MWh Middlebrook solar-plus-storage project, approximately 10km to the north, and Venn Energy’s 1,200MWh Lambruk solar-plus-storage site.
JinkoSolar continues to expand its presence across the Australian renewables market. Last year, the company submitted plans for an 800MWh solar-plus-storage site in Queensland to the EPBC Act.
Called the Beebo Solar Farm and BESS, the site is being proposed in the south of the state, south-west of Inglewood.
Australia’s energy storage sector continues to gain momentum with multiple significant BESS projects submitted to the EPBC Act in recent months.
Sydney-based developer Stor-Energy has been particularly active, submitting plans for a 150MW/730MWh battery storage project in New South Wales in August 2025. The Molong BESS project, located in the central west region of NSW, will connect to TransGrid’s nearby Molong substation for integration with the NEM.
The company has also submitted plans for two adjacent BESS facilities in Queensland’s Western Downs region. The Columboola West and Columboola East projects will provide 400MW/1,600MWh and 150MW/1,200MWh of capacity, respectively. Planning approvals are expected in early 2026.
Earlier this month, Energy-Storage.news reported that a 12GWh pumped hydro project and a 1,200MWh BESS in New South Wales had been submitted to the EPBC Act.
The Phoenix Pumped Hydro Energy Storage Project, which renewables developer ACEN Australia is pursuing, is located approximately 35km west of Mudgee in NSW’s Central-West Orana Renewable Energy Zone (REZ). It is designed to provide up to 12 hours of storage with a total capacity of 11,990MWh.
Meanwhile, Spanish sustainable energy developer X-Elio is proposing the 300MW/1,200MWh Willavale Park BESS, which is located 22km southwest of Goulburn and strategically positioned alongside the Hume Highway.
Our publisher, Solar Media, will host the Battery Asset Management Summit Australia 2025 on 26-27 August in Sydney. You can get 20% off your ticket using the code ESN20 at checkout.

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Production Linked Incentive scheme drives robust growth in India’s solar manufacturing sector – ieefa.org

However, much of the progress will depend on sustained policy coherence, capital mobilisation and upstream integration 
Launched in 2021, the Production Linked Incentive (PLI) scheme for high-efficiency solar modules has attracted strong industry interest and revived investor confidence in domestic solar manufacturing. However, capacity additions remain below targets, with only 56% of module and 14% of polysilicon capacity achieved as of June 2025.
In June 2025, India’s PV capacity reached 3.3 gigawatts (GW) polysilicon, 5.3GW wafer, 29GW cell, and 120GW module, with the PLI scheme driving all upstream capacity.
Future iterations of PLI must adopt a comprehensive manufacturing-linked framework that integrates fiscal support, upfront capital subsidies, ancillary development and longer policy tenures.
The PLI scheme has reinforced the government’s push for self-sufficiency, spurring an upsurge in domestic module capacity and investment inflow into the sector. At the same time, its full potential is yet to be realised due to delays in upstream integration, policy uncertainties, technical constraints, and volatility in global raw material prices.
9 December 2025 (JMK Research and IEEFA South Asia): A new report from JMK Research and the Institute for Energy Economics and Financial Analysis (IEEFA) notes that while the solar PLI scheme has helped lay the groundwork for domestic PV manufacturing, it continues to face significant operational and policy challenges.
“The scheme channels government support towards measurable industrial output, helping build durable, long-term manufacturing capacity,” says Vibhuti Garg, Director, IEEFA South Asia, and a contributing author of the report. 
According to the report, India’s solar manufacturing capacity has expanded significantly since 2022, with current operational capacity reaching 120GW for modules and 29.3GW for cells (as of June 2025). Post-2022 capacity additions totalled 82GW in modules and 22.7GW in cells, representing a 216% and 344% increase, respectively, from 2022 levels.
Whatever limited polysilicon and wafer capacities exist in India have come solely through the PLI scheme — underscoring India’s continued upstream dependence on imports — while about 36% of total cell and 24% of module capacity originate from PLI allocations. 
“However, the PLI scheme for solar PV manufacturing faces implementation challenges like high capital intensity of upstream integration, inadequate incentives, inconsistencies in trade policy, import dependency, and global raw material price volatility,” says Prabhakar Sharma, senior consultant, JMK Research, and one of the report’s authors.
Policy asymmetries — such as unrestricted imports for polysilicon and wafers alongside module restrictions under the Approved List of Models and Manufacturers (ALMM) — and frequent ALMM revisions have created uncertainty for domestic manufacturers. Besides, the scheme’s emphasis on fully integrated wafer-to-module facilities requires steep upfront investments, while incentives cover only a small fraction of production costs.
“India’s reliance on imported machinery, components, and Chinese technical expertise has further slowed capacity ramp-up, a situation worsened by visa restrictions and limited equipment availability,” says Chirag H Tewani, senior research associate at JMK Research, and a co-author of the report.
Meanwhile, global price volatility — especially in polysilicon and wafers — and China’s dominance in upstream production expose Indian manufacturers to cost spikes and supply disruptions. Limited scale in domestic polysilicon production also undermines cost competitiveness, highlighting the structural challenges in achieving a self-reliant and globally competitive solar manufacturing ecosystem.
“Delays in implementing PLI solar PV facilities have also limited the scheme’s economic impact,” says Sharma. As of June 2025, only 31GW of the targeted 65GW module capacity was commissioned, attracting roughly Rs48,120 crore (~US$5.5 billion) in investments and creating 38,500 direct jobs — far below the targets of Rs94,000 crore (US$10.45 billion) and 1.95 lakh direct jobs, the report states.
The report underscores that PLI non-compliance can lead to substantial financial losses for solar PLI awardees. According to JMK Research, across both tranches, solar PLI awardees can incur a monetary risk of up to Rs41,834 crore (~US$4.80 billion) cumulatively, combining direct penalties (bank guarantees encashment), lost incentives, and unrealised revenue from sales.
The scheme’s trajectory hinges on comprehensive recalibration rather than timeline extensions alone. “Future PLI iterations should focus on improving cost competitiveness, upstream integration and market resilience,” says Aman Gupta, research associate, JMK Research, and an author of the report. Key measures include tax credits, low-cost financing, and risk buffers against global price volatility; layered incentives and longer policy horizons to encourage full value-chain participation; and support for critical components to foster an integrated domestic supply chain.   
With the emerging 50% US tariff on Indian solar exports adding pressure, the policy environment is becoming increasingly complex and will require strategic adaptation. The report emphasises that India must develop institutional mechanisms for coordinated policy implementation, and better align incentives with manufacturing timelines and market protection measures, while providing long-term policy certainty.
Read the report: Assessing the effectiveness of India’s solar Production Linked Incentive scheme
Media contact: Prionka Jha ([email protected]); +91 9818884854
Author contacts: Vibhuti Garg ([email protected]), Prabhakar Sharma ([email protected]), Chirag H Tewani ([email protected]), Aman Gupta ([email protected]), Soni Tiwari ([email protected]
About JMK Research & Analytics: JMK Research & Analytics provides research and advisory services to Indian and international clients across renewable energy, electric mobility and the battery storage market. (www.jmkresearch.com
About IEEFA: The Institute for Energy Economics and Financial Analysis (IEEFA) examines issues related to energy markets, trends and policies. The Institute’s mission is to accelerate the transition to a diverse, sustainable and profitable energy economy. (ieefa.org)

Vibhuti Garg is the Director for South Asia at the Institute for Energy Economics and Financial Analysis (IEEFA), where she leads efforts to advance sustainable development through strategic policy interventions in energy pricing, subsidy reforms, innovative business models, and market design.

Prabhakar Sharma is a Senior Consultant at JMK Research with expertise in tracking the renewable energy and battery storage sectors.

Chirag specialises in power sector analysis, decarbonisation, VRE integration, and regulatory affairs. He focuses on renewable energy policy, tenders, & project tracking.

Chirag specialises in power sector analysis, decarbonisation, VRE integration, and regulatory affairs. He focuses on renewable energy policy, tenders, & project tracking.

Aman is a Research Associate at JMK Research with expertise in tracking trends in the renewable energy sector.

Aman is a Research Associate at JMK Research with expertise in tracking trends in the renewable energy sector.

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India solar to quadruple, wind to triple over a decade, power ministry adviser says – Reuters

India solar to quadruple, wind to triple over a decade, power ministry adviser says  Reuters
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Policy options and implications – Policy options to accelerate distributed solar PV in Ukraine – Analysis – IEA – International Energy Agency

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IEA (2025), Policy options to accelerate distributed solar PV in Ukraine, IEA, Paris https://www.iea.org/reports/policy-options-to-accelerate-distributed-solar-pv-in-ukraine, Licence: CC BY 4.0
Globally, government policies and incentives have been the main driver for distributed PV deployment. These instruments can be differentiated between 1) policies targeting investment costs and 2) policies focusing on consumption and the sale of electricity.
Policies targeting investment costs usually take the form of direct financial incentives that aim to reduce initial investment costs and make distributed PV systems more affordable for consumers. They include:
Grants and rebates: a fixed subsidy, usually with a one-time payment.
Tax credits: amounts taxpayers can subtract from taxes, usually based on a percentage of total solar PV system investments.
Accelerated depreciation: Solar PV owners can receive higher tax benefits by depreciating assets more quickly, usually in the first or second year.
Tax exemptions: sales tax, import duty or VAT reduction or exemption from the solar PV system price.

General policies and incentives targeting the consumption and sale of electricity focus on improving the economic attractiveness of solar PV systems over time:
Buy-all, sell-all: All solar PV generation is sold to the utility, usually at a fixed price. The remuneration of solar PV electricity can be above, equal to or lower than the retail rate, while solar PV owners buy all electricity at the retail price to cover their demand. In this model, solar PV owners are like small power plants generating electricity under a long-term power purchase agreement (PPA). The higher the tariff compared to the PV system’s levelised cost of energy (LCOE), the more attractive the scheme becomes, irrespective of the retail tariff.
Net metering: solar PV owners can use the electricity they generate, reducing their consumption from the network. In a net-metering scheme, a solar PV owner receives an 2Anchoraddexpandmore-dots TitleEN Show background color checkUse “Show background color” only in case the following block shows background colorenergy credit for any excess generation exported to the network during a specific time period. This energy credit can be deducted from network electricity consumed on future bills. In general, the higher the retail tariff compared to the solar PV system’s LCOE, the more attractive the net-metering scheme becomes.
Distributed solar PV real-time self-consumption models: solar PV owners can generate electricity for their own consumption and sell excess to the network. In contrast to net metering, energy accounting is done in real time and solar PV owners are paid for each unit of electricity exported, rather than earning energy credits towards future bills. The net billing scheme becomes more attractive, the higher the real-time selling price and retail tariffs are compared to the solar PV system’s LCOE.
Given short installation timelines, policies can result in a boom in distributed solar PV installations from one year to another. For instance, in Viet Nam, solar PV net additions increased more than 20-fold between 2019 and 2020, indicating the importance of the existing feed-in tariff. Generous net-metering schemes doubled net additions in 2022 in Brazil, and in the Netherlands in 2020. The impending phase down of tax credit benefits doubled net additions of residential solar PV in Italy in 2023. In Poland, a grant scheme led to triple the net additions in 2020. However, it is important to note that some of these policies in Viet Nam, Brazil and Italy resulted in boom-and-bust deployment cycles as the level of incentives was reduced. Generous incentives led to a rapid uptake of distributed solar PV which quickly increased the cost of the programme.
IEA (2025), <a href="https://www.iea.org/reports/renewables-2025">Renewables 2025</a>
Accelerating the deployment of distributed solar PV with BESS may require additional incentives to reach the suggested 24 GW of new distributed PV and 5.6 GW of new BESS by 2030. However, this could increase the financial burden for the government budget in the short-term. Balancing the need to incentivise new distributed solar PV installations to improve electricity security and limiting government financial exposure remains a key policy challenge. As such, we propose three policy options for the period covering 2025-2030. These have different implications concerning the amount of distributed solar PV and BESS deployment and of the level of support the government needs to provide.
Implementing existing incentive programmes and encouraging the adoption of solar PV outside major urban areas remain challenging. Many countries have created agencies or programmes to reach areas outside cities. The government of Canada has a Clean Energy for Rural and Remote Communities programme which aims to increase the amount of clean energy used to produce electricity and heating in rural and remote communities in Canada. The programme has a streamlined application process and reporting system and has allocated more than USD 500 million for projects over 13 years. Nigeria’s Rural Electrification Agency has programmes to increase electrification through special tariffs, and licence exemptions for systems under 100 kW capacity.
Additionally, the highest quality equipment should be used in Ukraine to ensure production and longevity. The government should provide a list of pre-selected equipment manufacturers sourced from lists of Tier one suppliers as defined by industry sources. Only solar PV systems from listed manufacturers should qualify for policy programmes and incentives.
BESS = Battery energy storage systems.
Ukraine’s existing policies for distributed solar PV consist of the low interest loans provided by the government, the Green Tariff and the recently introduced net-billing scheme. The 5-7-9% loan programme provides low-cost loans at 5-7% interest rate for commercial and industrial applicants, at 7% for homeowners’ associations, and at 0% for 10 years for households (the government compensates banks for the difference between the current loan rate, around 20%, and the programme’s loan rate), but can only be combined with participation in the net-billing scheme. The Green Tariff currently offers around EUR 135/MWh for electricity produced from solar PV systems in private households, but will cease payments after 2029. Lastly, the net billing scheme specifies that households can sell surplus electricity at the hourly wholesale electricity price, minus distribution system operator (DSO) charges and taxes. Wholesale power prices are between EUR 70 and 210 per MWh, while DSO charges average EUR 41/MWh and range from around EUR 17/MWh to EUR 71/MWh, depending on location, as of the beginning of 2025. The current residential electricity price is around EUR 84/MWh but will eventually increase once subsidies are phased out.
Considering recent deployment trends, existing incentives and current retail electricity prices, we estimate these policies could lead to 3.1 GW of solar PV capacity addition and another 1.4 GW of BESS by 2030 with an estimated government spend of around EUR 1.4 billion through 2030 for financial support.
 
Reference
Policy
option 1

Policy
option 2

Policy
option 3

Solar PV
Net additions by 2030 (GW)
3.1 GW
24.1 GW
18.0 GW
6.8 GW
CAPEX (EUR/kW)
1 000 EUR/kW
Full-load hours
1 200 FLH/year
Net additions from zero-interest loans
1.52 GW

18.0 GW

Investment grant intensity

60%


Additional feed-in bonus



EUR 5/MWh
BESS
Net additions by 2030 (GW)
1.4 GW
5.6 GW
5.6 GW
3.0 GW
CAPEX (EUR/kW)
1 200 EUR/kW
Net additions from zero-interest loans
1.4 GW

5.6 GW

Investment grant intensity

60%

25%
General
WACC/discount rate
20%
Green Tariff
EUR 135/MWh



Tariff

EUR 70/MWh
EUR 135/MWh

Wholesale electricity price
EUR 80/MWh
EUR 80/MWh
EUR 80/MWh

Although financial incentives and low or zero-interest loans are currently available, initial investment costs for solar PV projects are still high for households and small businesses, limiting a stronger buildout.
Policy option 1 addresses this challenge by proposing the introduction of an investment grant. This direct incentive should cover at least 60% of the total investment costs for small-scale systems (including both the solar PV system and the BESS). In addition, a fixed and stable tariff for selling the entire production of the generated electricity to the energy supplier or another state-owned entity can provide additional financial support and mitigate the risk. As the investment costs are already subsidised, this tariff can be significantly below the typical LCOE and thus even below today’s wholesale market prices. The difference between the tariff and market prices leads to additional savings for the government, reducing the financial burden.
While this policy option facilitates a fast buildout of 24 GW of distributed solar PV and 5.6 GW of BESS, it entails rather high costs for the government, especially in the short-term. We estimate this policy option could cost around EUR 17.5 billion by the end of 20301. It should be noted that the total expenses for policy option 1 decrease over time based on IEA calculations, as the government can gain additional revenue if the tariff remains below wholesale market prices. 
The second policy option focuses on improving the existing policies and incentives. Currently, the Ukrainian government offers low or zero-interest loans for setting up distributed solar PV systems including BESS, the Green Tariff, and the net billing scheme. Nevertheless, the low or zero interest loans are difficult to obtain and payments under the Green Tariff are only foreseen until the end of 2029. The net billing scheme might not offer sufficient financial incentives at the current, subsidised retail tariffs, and entails an administrative burden for electricity suppliers and consumers with solar PV systems.
Policy option 2 addresses this challenge by enhancing the existing incentives. The low or zero interest loans should be made more widely available by providing capacity building for local banks and/or transforming local administrations to ‘one-stop shops’ for the loans. Loans should be available to interested parties that both produce and consume energy (prosumers), thus reducing existing administrative barriers. The government could also consider a new feed-in tariff exclusively for distributed solar PV customers beyond 2030 (although in order to qualify for this new tariff, the system must be installed prior to the end of 2030).
This policy option provides a compromise between the other two alternatives. We estimate enhancing the current policies will lead to expenses of around EUR 16.1 billion by 2030, which is around 90% of the cost of policy option 1 and almost 12 times the cost of the reference case. While policy option 2 might not lead to the required expansion, it should result in significant uptake of 18 GW of solar PV and 5.6 GW of BESS by 2030.
This third policy option focuses on providing a system-friendly2, long-term policy strategy. The other two policy options increase government spending significantly (and potentially also system costs) but can lead to fast and strong deployment, which is appropriate given the current exceptional situation.
Policy option 3 suggests introducing a real-time/hourly self-consumption scheme. Although similar to the current net billing scheme, surplus electricity should be remunerated with an extra benefit payment in addition to the wholesale market price. This scheme foresees a direct incentive for BESS which covers 25% of the cost of the storage asset.
This policy option requires the least expenditure of the three, but results in the lowest amount of new capacity, as it provides the lowest incentives. We estimate the expenses from the additional self-consumption benefit would amount to around EUR 55 million by 2030 and the incentive for the BESS to be around EUR 1.8 billion. The total amount is EUR 1.9 billion, around a third more than the reference case. The incentivised deployment would be almost 7 GW of solar PV and 3 GW of BESS by 2030.

Achieving the 24.1 GW of solar PV and 5.6 GW of BESS by 2030 with only a 30% direct incentive would decrease the support costs by around EUR 9.3 billion to roughly EUR 8.2 billion in total.   

System-friendliness refers to planning, operating or contracting solar and wind power plants in a way that supports the overall outcomes for the system.

Achieving the 24.1 GW of solar PV and 5.6 GW of BESS by 2030 with only a 30% direct incentive would decrease the support costs by around EUR 9.3 billion to roughly EUR 8.2 billion in total.   

System-friendliness refers to planning, operating or contracting solar and wind power plants in a way that supports the overall outcomes for the system.
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Japan sets FIT terms for small PV, rooftop solar as large-scale auctions end – pv magazine International

The Japanese government has set 2026 feed-in tariff (FIT) terms for solar below 250 kW, set the renewable energy levy at JPY 4.18 ($0.026)/kWh, and confirmed that feed-in premium (FIP) auctions for large-scale solar will end after 2026.
Image: pv magazine
Japan will continue to support smaller solar installations under its FIT scheme while closing its auction-based FIP program for large-scale solar after fiscal year 2026, the Ministry of Economy, Trade and Industry (METI) said in an online statement this week.
For residential solar under 10 kW, the government has introduced a tiered initial investment support scheme, offering JPY 24/kWh for the first four years and JPY 8.3/kWh for years five through 10. Roof-mounted commercial solar of 10 kW or more receives JPY 19/kWh for the first five years and JPY 8.3/kWh for years six through 20. Both schemes were introduced in the second half of fiscal year 2025.
Ground-mounted commercial solar between 10 kW and 50 kW receives a FIT rate of JPY 9.6/kWh in fiscal 2026. From fiscal year 2027, ground-mounted commercial solar will be excluded from FIT and FIP support entirely.
For large-scale solar above 250 kW, FIP premiums are awarded through auction. METI has set four auction rounds for fiscal year 2026 with a ceiling price of JPY 9.6/kWh. From fiscal year 2027, no further auctions will be held and no FIP support will be available for this category. Japan’s fiscal year 2026 – which runs from Oct. 1, 2025, to Sept. 30, 2026 – represents the final year of auction-based support for utility-scale solar in Japan.
The renewable energy levy, paid by all electricity consumers to fund the FIT and FIP schemes, has been set at JPY 4.18/kWh for fiscal year 2026. A typical household consuming 400 kWh per month will pay JPY 1,672 per month and JPY 20,064 per year. The levy applies from the May 2026 meter reading through April 2027.
METI’s total estimated purchase costs under the schemes for fiscal 2026 are JPY 4,850.7 billion, marginally below the fiscal year 2025 estimate of JPY 4,854.0 billion. It said that avoidable costs are estimated at JPY 1,649.5 billion, down from JPY 1,790.6 billion in fiscal year 2025.
Japan’s most recent solar auction, its 27th, concluded earlier this month with 79 MW allocated across 11 projects at an average final price of JPY 4.61/kWh, against a ceiling price of JPY 8.68/kWh.
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NASA astronauts conduct spacewalk to upgrade ISS solar panels – 12News

WASHINGTON — A pair of astronauts aboard the International Space Station stepped out into the void Wednesday, exiting the station for a spacewalk to conduct upgrades on a solar panel array. 
Jessica Meir and Chris Williams took part in the approximately seven-hour and two-minute spacewalk, wrapping up at 3:54 p.m. EDT, according to NASA
It was Meir’s fourth spacewalk and the first for Williams. 
According to the space agency, the pair completed their primary objectives, including installing a solar array modification kit to upgrade one of the solar arrays that power the space station. 
Meir is a returning astronaut who rejoined the ISS crew last month after a health concern among the previous crew led to an unexpected and early return to Earth for four astronauts. Williams was the only American, along with two Russian astronauts, to keep the station running with a skeleton crew. 
January’s medical evacuation was NASA’s first in 65 years of human spaceflight. One of four astronauts launched by SpaceX last summer suffered what officials described as a serious health issue, prompting their hasty return. 
With only three people aboard, NASA was forced to pause spacewalks and revise research plans. Now, with Meir and another three astronauts back after hitching a ride aboard a SpaceX capsule, missions outside the station can resume. 
Williams is a physicist focusing on deep-space telescopes aimed at discovering the origins of the universe. He blasted off to the ISS on Nov. 27, 2025, and is midway through his debut eight-month mission in space. 
 Meir returned to space after a 205-day trip aboard the ISS in 2019-2020. During her first station visit, Meir made history when she took part in the first all-female spacewalk.
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LEGO reveals plans for over 40,000 solar panels in Virginia – Brick Fanatics

LEGO reveals plans for over 40,000 solar panels in Virginia  Brick Fanatics
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County planners OK latest solar farm project – Millard County Chronicle Progress

Thursday, March 19, 2026
  EDITOR’S NOTE: This was initially published in the March 11, 2026 edition. Some information may be outdated.  Millard County planning commissioners voted to give a positive recommendation to a new 3,600-acre solar farm just west of Intermountain Power last Thursday. The Notch Peak Project joins a growing list of energy developments inside Millard County, including a separate solar farm […]

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Leapting secures USD 14.5m to advance solar robotic tech – Renewables Now

Leapting secures USD 14.5m to advance solar robotic tech  Renewables Now
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India to require domestically produced solar cells for all projects from June 2026 – energiesmedia.com

India to require domestically produced solar cells for all projects from June 2026  energiesmedia.com
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Higher power prices prompt push for solar – Bangkok Post

PUBLISHED : 19 Mar 2026 at 05:48
NEWSPAPER SECTION: Business
WRITER: Yuthana Praiwan
Small businesses and households are being urged to reduce their reliance on the state electricity grid and adopt solar power solutions, as global energy price volatility threatens to drive up costs, despite Thailand’s capped power tariffs, according to solar firms.
Caretaker energy minister Auttapol Rerkpiboon recently announced a temporary ceiling of 3.88 baht per kilowatt-hour for the period from May to August.
But industry analysts warn that rising fuel prices, driven by the conflict in the Middle East, will eventually push electricity costs higher.
Oil and liquefied natural gas (LNG) shipments through the Strait of Hormuz have been disrupted by the conflict, tightening global supply and inflating prices.
New Energy Plus Solutions, a solar panel importer and installer, is calling on the incoming government to expand public access to solar technology.
The company said that self-generation is the most sustainable way for households and small and medium-sized enterprises (SMEs) to shield themselves from future energy shocks.
The appeal comes as parliament prepares to vote on a new prime minister on March 19, paving the way for a new cabinet.
Before the House was dissolved in December, the Anutin Charnvirakul administration had already announced incentives, including tax breaks for 90,000 households installing rooftop panels and plans for solar-powered water pumps across 700,000 rai of farmland.
Treerat Sirichantaropas, chief executive of New Energy Plus, proposed that the government introduce low-interest loans capped at 3% to help households and SMEs finance installations.
“This is a long-term solution for people to survive the energy crisis,” he said, noting that savings from reduced grid dependence could be reinvested into solar systems.
Meanwhile, Prime Road Power, a SET-listed solar farm operator, sees growing opportunities in residential projects. Chairman Somprasong Panjalak said that the crisis is accelerating lifestyle adjustments, with solar self-generation emerging as the most practical option.
Adding pressure to the market, Chinese solar panel prices are rising as Beijing plans to gradually scrap export value-added tax rebates from April 1, a move aimed at curbing oversupply and easing trade tensions.
In Thailand, electricity prices are expected to follow LNG costs. The government is likely to instruct the Electricity Generating Authority of Thailand and PTT Plc, the country’s main LNG importer, to subsidise the power tariff, analysts note.
The Energy Regulatory Commission is expected to release details soon regarding the financial burden these state enterprises will shoulder.
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India’s solar manufacturing surge gains pace ahead of June 2026 domestic content mandate – energiesmedia.com

India’s solar manufacturing surge gains pace ahead of June 2026 domestic content mandate  energiesmedia.com
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Number of rooftop solar PV systems installed in Spain 2016-2024, by sector – Statista

Number of rooftop solar PV systems installed in Spain 2016-2024, by sector  Statista
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Risen presents 475 W TOPCon solar panel with 23.8% efficiency – pv magazine Australia

Chinese solar module maker Risen Energy has introduced a 475 W bifacial solar module with a power conversion efficiency of 23.8% to the Australian market, targeting the rooftop market.
Image: Risen
Risen Energy has announced the official launch of its ​​n-type 475 W bifacial tunnel oxide passivated contact (TOPCon) solar modules​​ in the Australian market, saying the product is perfectly tailored to local requirements.
“Featuring a compact design, the product delivers optimised weight, performance, and reliability, making it an ideal solution for Australian rooftop solar applications,” the manufacturer said.
Risen said the RSM96-11-475BNDG module has a power output of 475 W and a power conversion efficiency of 23.8%. The open-circuit voltage is 36.42 V, the short-circuit current is 16.52 A, and maximum system voltage is 1,500 V. The operating ambient temperature ranges from -40 C to 85 C and the manufacturer said it has a low temperature coefficient of -0.29%/°C that minimises high-temperature power loss.
“With 23.8% high efficiency and outstanding weak-light performance, the module fully leverages Australia’s abundant sunlight to maximise energy yield per unit area,” Risen said.
The panel measures 1,722 mm × 1,134mm × 30 mm and weighs 21.5 kg. It features a black anodized aluminium alloy frame and 1.6 mm of heat strengthened glass with an anti-reflection coating. Its junction box has an IP 68 rating.
Risen said the compact and lightweight design, high power output, and long-term durability means the RSM96-11-475BNDG module is “perfectly suited for roof load and space constraints while reducing installation costs,” adding that its “modules meet Australia’s solar demands with proven performance, becoming a key enabler of the country’s energy transformation.”
Risen offers a 25-year product warranty and a 30-year power output guarantee. Annual linear degradation over 30 years is indicated at 0.40%. The degradation in the first year is purportedly 1% and 30-year end power output is guaranteed to be no less than 87.4% of the nominal output power.
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UK solar surge amid global gas market volatility – Solar Power Portal

New data from UK-based energy supplier Octopus Energy has shown a 27% increase in British solar installation enquiries since the conflict in the Middle East began.
March 19, 2026
Octopus Energy’s data looked at the number of solar enquiries between 28 February to 7 March 2026 in comparison to average weekly enquiries.
Since the conflict escalated in late February, gas prices have increased by over 60%. As the conflict continues, households will likely look to invest in energy sources for their homes that are self-reliant and renewable.
This will let them decrease their reliance on gas, reducing the financial blow of the gas market’s current volatility. 
“We are seeing a fundamental shift in the national psyche when it comes to energy. With the second energy market shock in less than five years, homeowners are looking for security,” Rebecca Dibb-Simkin, Chief Product Officer at Octopus Energy, said.
Furthermore, the Microgeneration Certification Scheme (MCS)’s current industry data has demonstrated that the UK is experiencing a record year for solar. In 2025, over 260,000 homes installed solar, resulting in a total of 1.8 million UK households generating solar energy.
Related:Good Energy expands into Scotland by acquiring Low Energy Services
More data from MCS showed that UK battery installations have almost doubled year-on-year, enabling households to store their surplus energy for peak evening use.
Combined, Octopus Energy and MCS’s datasets seem to indicate a trend of UK households seeking to improve their energy security through renewable resources.
Dibb-Simkin added, “This surge in solar interest suggests people now see their rooftops as a frontline of their financial resilience. By generating their own power, they can help to insulate their bank accounts against global energy crises.”
In a release discussing its February- March findings, Octopus Energy cites UK-based Norwich homeowners Elizabeth and Keith Stork as a case study. The couple explained that they save £60 (US$79) a month on their energy bills due to their solar and battery installations.
A report from the Department for Energy Security and Net Zero (DESNZ) corroborated this sentiment, as it pointed out that home solar arrays reduce reliance on the national grid and provide a reduction in household bills. 
DESNZ’s June 2025 Solar Road Map specifically noted that, on average, a homeowner could reduce their energy bills by around £500 (US$665) by utilising rooftop solar PV.
Gas prices in the UK and Europe rose again on Thursday morning (19 March) following overnight attacks on energy infrastructure in the Middle East, putting further pressure on UK households to reduce their gas bills.
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1/2 Pcs Small Solar Panel 1W 3V 100mA With Cable – Mini DIY Polysilicon Epoxy Cell Charger For LED Lights, Fans – ruhrkanal.news

1/2 Pcs Small Solar Panel 1W 3V 100mA With Cable – Mini DIY Polysilicon Epoxy Cell Charger For LED Lights, Fans  ruhrkanal.news
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India: solar PV module manufacturing companies 2023 – Statista

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As of March 2023, Waree Energies was by far the largest manufacturer of solar photovoltaic modules in India, with an annual capacity of over **** gigawatts. Vikram Solar was another big player in module manufacturing. The company based in Kolkata had an annual manufacturing capacity of roughly *** gigawatts. As of January 2023, Gujarat was the leading state in India in terms of solar PV module manufacturing capacity.

Solar energy is the largest renewable energy source in India in terms of installed capacity. In 2022, the Asian country had more than ** gigawatts of solar capacity installed. Although India failed to reach the 100 gigawatts targeted for 2022, the use of solar has grown considerably in the last few years. From 2020 to 2022, India’s solar installations increased by roughly ** percent. Furthermore, India has set ambitious targets for 2030, planning to quadruple the existing capacity by that year. India’s large land area and sunny weather make it ideal for the deployment of solar technologies.

Apart from solar, India generates a substantial amount of energy from wind and hydropower sources. In 2022, wind power production in the Asian country stood at roughly ** terawatt hours and the cumulative wind power capacity reached ** gigawatts. In comparison with the growth seen in the solar photovoltaic sector, India’s wind capacity has remained relatively stagnant. Nevertheless, India plans to invest in wind energy in the next years and has set a target of *** gigawatts of wind installed by 2030, over four times the current capacity.

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India Tightens Solar Norms to Cut Chinese Imports – Vajiram & Ravi

Home > Mains Article > Solar Sourcing Norm
Solar sourcing norms in India now include wafers and ingots to reduce Chinese imports and boost domestic manufacturing across the solar supply chain.
By Vajiram Mains Team – Mar 19, 2026, 10:21 IST
Source: IE | FE
Date IconLast updated on March, 2026
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Q1. What are solar sourcing norms in India?+
Ans. Solar sourcing norms in India mandate use of domestically manufactured components like modules, cells, wafers, and ingots to reduce import dependence and boost local solar manufacturing capacity.
Q2. Why is India expanding solar sourcing norms?+
Ans. India is expanding solar sourcing norms to reduce dependence on Chinese imports, strengthen domestic supply chains, and achieve self-reliance in renewable energy manufacturing.
Q3. What is the ALMM framework in solar sourcing norms India?+
Ans. The ALMM framework lists approved domestic manufacturers for modules, cells, and wafers, ensuring cascading sourcing requirements across the solar value chain under solar sourcing norms India.
Q4. What challenges exist in upstream solar manufacturing?+
Ans. Upstream segments like wafers and polysilicon face high capital costs, low capacity, and competition from cheaper Chinese imports, slowing progress despite policy support like the PLI scheme.
Q5. How will solar sourcing norms impact imports?+
Ans. Solar sourcing norms India will gradually reduce imports by mandating domestic production of key components, strengthening energy security and boosting local manufacturing ecosystems.
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Revealed: How much solar panels really add to your Aussie home value – realestate.com.au

Taylor Troeth, Property Journalist
First published 27 Oct 2025, 3:58pm
Environmentally-friendly homeowners now have the upper hand in the property market, new data reveals.
Aussie ecowarriors who are putting sustainability at the forefront of their homes are now adding an estimated $23,100 nationally onto the value of their homes simply by adding solar, according to a Commonwealth Bank supported report.
On top of that, more than four in five Australians are prepared to pay extra for homes featuring energy saving technologies, according to Green.com.au.
While many are deterred by the cost to install, a new analysis from iSelect revealed it can take less than three years to get the return on your solar investment, which in some cities can cost you less than $5000.
Solar panels can add upwards of $23,000 to the value of your home, while also slashing bills.
Aussies are also making huge savings, with homeowners in some major cities saving more than $2000 per year on their energy costs.
iSelect has revealed where in Australia you will see the fastest returns when adding solar to your home by reviewing solar panel prices, government rebates, local solar exposure data from the Bureau of Meteorology, average retail electricity and feed-in tariff rates.
The analysis has revealed Perth homeowners have the fastest return on investment for solar panels without a battery using 4kW per day, where systems pay for themselves in about four years and nine months.
The payback period shortens with higher consumption – Perth properties using 7kW per day can see a return in just three years and eight months, while those using 4kW per day in about four years and nine months.
Perth also has the lowest cost across most system sizes, making it one of the most affordable states to invest in solar, except for 10kW systems.
Adds an estimated $14,939 (2.1 per cent) to the property value in Perth and $22,594 (4 per cent) regionally.
For households using 10kW per day, Adelaide homes take the lead with solar paying itself off in just two years and three months.
Adelaide households with high-energy usage can save up to $3019 in a year once their solar-plus-battery system is paid off – the highest in Australia. This is followed by Darwin ($2611) and Sydney ($2596).
The payback period shortens with higher consumption – homes using 7kW per day can expect repayment in three years and eight months, while those consuming 10kW per day can see a return in just three years.
While solar with a battery takes longer to pay off upfront, the long-term rewards are greater. Adelaide also has the second best savings potential of more than $2050 per year.
Adds an estimated $14,093 (1.7 per cent) to the property value in Adelaide and $22,272 (4.7 per cent) regionally.
Perth and Adelaide are among the top best cities to invest in solar, according to iSelect.
In regional Northern Territory, solar added an estimated 6.9 per cent to the median house value, about $31,350, reflecting high energy demand for cooling and heating as well as abundant sunlight, according to a Commonwealth Bank and Cotality solar report.
Although Darwin had the largest upfront cost for a solar system and battery costing an estimated $21,392, it would add about $20,331 to the value of the house.
Even without a battery, Darwin households using 10kW of energy a day can save about $2143 in a year once their solar is paid off.
Based on Bureau of Meteorology data, the Northern Territory unsurprisingly tops the list for year-round solar exposure.
Sydney ranks second for both mid and high-range usage with the quickest pay back in just six years and 11 months for 7kw per day and six years and one month for 10kW per day.
Sydney and Adelaide lead for payback with batteries, due to high electricity prices, which they avoid paying by storing solar power for evenings.
Solar power systems add an estimated $19,179 (1.6 per cent) to the property value in Sydney and $23,568 (3.7 per cent) regionally.
In Brisbane, solar panel systems are estimated to add about $30,219 to the value of the house.
When it comes to the amount of how long it will take to pay off, Brisbane sits in the middle of the range.
Brisbane has one of the higher savings amounts for solar systems with a battery, just behind Adelaide, Darwin and Sydney.
During payback, the savings are between $1616 and $2645 depending on the size of the system.
For a higher range household without a battery, it will take about three years and nine months to pay off.
In regional Queensland, solar power systems add an estimated $28,100 (3.6 per cent) to the value of a property.
iSelect reveals whether it is worth installing solar.
Melbourne had the cheapest upfront cost across the country for just a solar system with no battery at $4870, according to iSelect. For the higher range 10kW per day it would take just over four years to pay off.
At the lower end of the rankings, Melbourne households still benefit although they see the smallest amount of total long term energy savings at a max of $1721 per year.
Lower solar exposure and cheaper retail electricity rates both contribute to the smaller long-term return in Victoria.
While that is smaller compared to sunnier states, it is still a significant return once systems are paid off.
Solar power systems add an estimated $24,369 (2.8 per cent) to the property value in Melbourne and $18,892 (3.1 per cent) regionally.
Hobart sees the slowest returns for mid- and high-range usage. At 7kW per day, it takes about six years and seven months to pay off, while 10kW per day takes five years and nine months.
This is because Hobart has a high cost for solar systems and despite a relatively high feed-in tariff rate, electricity prices and solar exposure are the lowest in the country.
Despite this, it is estimated to add about 5.4 per cent, or $30,500 to the value of the home.
Tasmania also has one of the highest and most consistent feed in tariffs, with standard rates at 8.78 per kWh.
In regional Tasmania, solar power systems add an estimated $18,232 (3.1 per cent) to the value of a house.
Canberra offers the lowest installation cost when it comes to a 10kW system at a rate of 75c per watt.
Canberra households can also make a decent saving of $1547 per year with a 10kW system without a battery, or $2157 with a battery.
Solar power systems add an estimated $23,285 (2.1 per cent) to the property value in the ACT.
iSelect analysis of payback periods. Picture: iSelect
iSelect analysis of payback periods. Picture: iSelect
Savings for solar without a battery. Picture: iSelect
Savings for solar with a battery. Picture: iSelect
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KCK woman offers solar panel warning to homeowners – KMBC

Stefany Payne is stuck paying for a system that has only raised her bills
Stefany Payne is stuck paying for a system that has only raised her bills
Stefany Payne is stuck paying for a system that has only raised her bills
It sounded like a solid deal to Stefany Payne.
Install 10 solar panels on her roof. Watch her electric bill go down.
But nearly a year and a half after the Kansas City, Kansas, teacher bought a $49,000 solar panel system from a front-door salesman along with tree trimming and energy upgrades for her home, she is trying to hire an attorney to get out of the 25-year contract.
Her solar system is not lowering her bills. No one has shown up to trim the trees to allow for better solar coverage. And the insulation, duct sealing and smart thermostat she paid for in her contract never arrived, either.
The total payments for her solar system, with interest? More than $77,000.
The lender could potentially put a lien on the system if she stops making payments.
“If I do not get this resolved in the next couple of years, I would not be able to sell my home,” she said.
Payne contacted KMBC 9 Investigates to warn others about door-to-door solar salesmen. She is the latest customer to reach out to KMBC with concerns about deceptive business practices of solar salesmen. She is now searching for an attorney to represent her in breach of contract claims, aiming for arbitration or a settlement with the lender since the company never delivered on its promise.
The “Solar Bro” industry has come under fire after scores of homeowners got duped into contracts with companies that have now gone bankrupt, closed up shop or will not respond.
The company that sold Payne her system, G3 Solar, has an F rating from the Better Business Bureau and is facing a lawsuit in Ohio and government fines and actions in Utah. KMBC emailed an address on file for the company but did not hear back.
Reputable solar sales workers and companies will never pressure consumers into contracts, according to Bob Solger, founder and emeritus board member of the Missouri Solar Energy Industries Association and managing partner of Solar Design Studio. Solger says you should always look to see if the company is part of the MSEIA in Missouri, or Clean Energy Business Council in Kansas, both organizations that abide by codes of ethics.
“These companies have been vetted and are reputable, similar to what the Better Business Bureau would do. But this is specific to solar,” Solger said.
Solger said if they do not have enough cash, consumers should always work with local banks to potentially take out a home improvement loan.
The Better Business Bureau does also have tips on solar scams.
If you are a victim of solar panel loan fraud or your solar panel system is not working as advertised, email investigative reporter Matt Flener at investigates@kmbc.com.
Hearst Television participates in various affiliate marketing programs, which means we may get paid commissions on editorially chosen products purchased through our links to retailer sites.

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Knox County solar project completed – Inside INdiana Business

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Toyota locks in power from a massive new Texas solar farm – Electrek

Avantus and Toyota Tsusho America have completed construction of a 159 MWdc solar project in Texas, adding another large-scale clean energy asset to the state’s fast-growing solar fleet.
The Norton Solar Project, in Runnels County southwest of Fort Worth, reached “substantial completion” in October 2025 and is now operational. The project’s full output is tied to a long-term virtual power purchase agreement (VPPA) between Toyota Tsusho America and Toyota Motor North America.
The VPPA means Toyota Motor North America will be able to match its electricity use with the output from the Norton solar plant, supporting its broader clean energy goals. Corporate buyers like Toyota have increasingly turned to VPPAs to secure renewable energy without directly owning generation assets.
Toyota Tsusho America, the Toyota Group’s trading and project development arm that structures energy deals, partnered with Avantus to lock in clean power for Toyota Motor North America.
The Norton project created nearly 250 jobs at peak construction and is expected to continue delivering economic benefits to Runnels County over its lifetime.
Avantus led development and project delivery, while renewable energy company RES handled engineering, procurement, and construction.
Norton is one piece of Avantus’s broader buildout across the western US. The company, which develops, owns, and operates utility-scale clean energy projects, says it has around 24 gigawatts of solar and 75 gigawatt-hours of energy storage in its portfolio across California and the Desert Southwest.
Read more: Google secures 1 GW solar deal as Texas data‑center load surges
If you’ve ever considered going solar, make it easy by finding a trusted, reliable solar installer near you that offers competitive pricing by checking out EnergySage. It has hundreds of pre-vetted solar installers competing for your business, ensuring you get high-quality solutions and save 20-30% compared to going it alone. Plus, it’s free to use, and you won’t get sales calls until you select an installer and share your phone number with them. 
Your personalized solar quotes are easy to compare online, and you’ll get access to unbiased Energy Advisors to help you every step of the way. Get started here.
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Michelle Lewis is a writer and editor on Electrek and an editor on DroneDJ, 9to5Mac, and 9to5Google. She lives in White River Junction, Vermont. She has previously worked for Fast Company, the Guardian, News Deeply, Time, and others. Message Michelle on Twitter or at michelle@9to5mac.com. Check out her personal blog.
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Tongwei Shines at All-Energy Australia 2025|Company News – Solarbe Global

Tongwei Shines at All-Energy Australia 2025|Company News  Solarbe Global
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EMEBAY Solar Fountain Pump With Battery Backup – 10V Submersible, Lifts Water 100cm | For Bird Bath, Pond, Garden | Solar Panel Kit – ruhrkanal.news

EMEBAY Solar Fountain Pump With Battery Backup – 10V Submersible, Lifts Water 100cm | For Bird Bath, Pond, Garden | Solar Panel Kit  ruhrkanal.news
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10AWG Solar Panel To O Ring Cable – 25cm, 4-Pack, For Charge Controllers & Power Stations – ruhrkanal.news

10AWG Solar Panel To O Ring Cable – 25cm, 4-Pack, For Charge Controllers & Power Stations  ruhrkanal.news
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Sunlight Kept This Solar Drone in the Air for Over Five Hours Straight – TechEBlog –

Solar Drone Test Flight Project Built
Luke Bell had a nagging worry following his last year’s test flight with the first solar-powered drone. Could a drone truly run solely on solar power and stay aloft for far longer than anyone imagined possible on a clear day? He was previously familiar with how the basic components worked in a lesser scale. The initial version flew for about three minutes before the panels snapped and it crashed to the ground.


This time, he wanted to go even further, so he shortened the arm length on his quadcopter frame by 70 grams, resulting in a loss of around 4 watts of power right away. The solar panels themselves received a significant boost, with new stronger TPU sleeves wrapped around each one to withstand a little of wind without snapping. To further reduce mass, he rerouted the wiring to make it shorter and neater.

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Solar Drone Test Flight Project Build
Thirty two small solar panels were arranged in an eight by four grid and soldered together into a single unified array, capable of pushing out 110 watts in full daylight, more than enough to keep the drone airborne. Getting the balance right took some careful thinking. Bell mounted the entire panel platform lower on the carbon fiber frame to bring the center of gravity into the right place, which cleared up the stubborn wobble that had been showing up during early test flights. Computer simulations confirmed that the propellers kept spinning cleanly even with the panels sitting directly above them, which was one of the trickier design questions to answer.

Solar Drone Test Flight Project Build
Under the hood, a pair of T-Motor Antigravity MN4004 motors spin compact 18 by 6 inch propellers through a T-Motor F60A Mini speed controller, with a T-Motor H7 Mini flight controller and a GPS unit keeping everything stable once the settings were dialed in. Getting to that point took some patience though. Early flights revealed that the solar panels were interfering with the GPS signal, making it difficult to lock onto satellites reliably. Bell had to reposition the unit and recalibrate the compass several times before it was consistently picking up 20 or more signals and holding its position the way he needed it to.

Solar Drone Test Flight Project Build
Cape Town’s unpredictable winds created sudden power spikes that the solar panels couldn’t handle on their own, and passing clouds could cut the output in a matter of seconds. To smooth things out, Bell added a small five cell lithium ion pack connected through a set of diodes. It would only kick in when the solar array needed backup, feeding power to the motors just in time to keep things steady, and whenever the sun was generous enough it would quietly recharge at around 11 watts.

Solar Drone Test Flight Project Build
So, with the drone completely completed, he took it to the skies over Stellenbosch for a real test. A sunny morning meant he could start it and watch the voltage rise to 20.66 volts in the bright sunlight. The drone took off effortlessly and locked into position hold. Minutes passed, and with only a little manual correction here and there, he watched it sail along slowly. An hour passed, then two, then three and a half, and the machine kept buzzing away smoothly.

Solar Drone Test Flight Project Build
At the five hour mark the numbers told the story, 5 hours, 2 minutes, and 21 seconds in the air before Bell finally brought it in for a gentle landing. The entire flight ran on solar power alone, with a small backup battery there purely as a safety net for moments when the panels weren’t pulling in quite enough sunlight. No fuel, no heavy battery pack, just a handful of solar panels drinking in as much South African sunshine as they could manage.

Solar Drone Test Flight Project Build
That time shattered the previous flight record for a radio controlled quadcopter, and it will take something special to beat it. Bell is already thinking about what comes next, with plans to ditch the backup battery entirely and squeeze even more efficiency out of the design, likely with a few more tweaks to the frame along the way.
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New energy projects due to power up this year in West Sussex – MSN

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Call for Solar Farm guidelines – WexfordLocal.com

WexfordLocal.com
News and Sport and Events that matter across County Wexford.
By Dan Walsh at Wexford County Council meeting and Gusserane
Gusserane Community Action Group protested outside County Hall, Wexford, before the December meeting of Wexford County Council and representatives of the group are present in the public gallery at every meeting since watching the contentious issue of solar farm applications.
The group protested a planning application and renewable energy project, describing it as “a very extensive and intrusive sized energy development”—specifically, solar farms in the district.
The group told WexfordLocal.com that the size of this development is not in any way sympathetic to the small tight knit rural community of Gusserane and neighbours in Cushinstown and Newbawn and this rural community was never designed for a high-impact industrial energy complex!
They also alleged that “prime agricultural land is being taken to solar farm – this is not allowed in many countries -and land in the same area sold for agriculture at record breaking prices last year, “The implications of this will have a devastating effect on local farmers who lease land to produce crops and vegetables and rear livestock. Farmers and the associated agri-industries will be adversely affected by the imposition of this industrial energy compound.”
There are other worries too, like the high risk of pollution and habitat damage to the environment and the Terrerath and Owenduff rivers that flow towards Bannow and the destruction of hedgerows and biodiversity corridors used by pollinators, birds, and wildlife.
Addressing the issue at the December meeting, Chief Executive Eddie Taaffe said it was a national issue and needs to be addressed nationally.
At the March meeting of Wexford County Council a motion in the names of Cllrs Michael Sheehan, John Dwyer, Marty Murphy, Bridín Murphy, John Fleming and Pat Barden was put forward, but it received an unfavourable response from the chamber and was put to the meeting by Cathaoirleach Cllr Joe Sullivan as an amendment that read; “The Council  calls on the Minister for Housing, Local Government and Heritage to immediately issue Solar Farm National Planning Guidelines as a matter of urgency.” The motion proposed by Cllr Oliver Walsh and seconded by Cllr Anthony Donohoe was carried 14 votes to 10.
Cllr Pat Barden argued strongly against the proposed solar farm activity in Gusserane and felt it was inappropriate to “use prime agricultural land for solar farms.”
“We are on a slippery slope here,” said Cllr Barden, who believed that if the solar farms go ahead, “the family farm is dead.”
Cllr John Dwyer drew attention to “the visual intrusion” it would cause.
Cllr Frank Staples said; “We can’t dictate to farmers what to do with their land” while Cllr Pip Breen pointed out that “tillage farmers are losing money” and need financial security.
Cllrs Anthony Donohoe and Robbie Staples supported “a business decision chosen by the local farmers.”
Meanwhile, anti-solar farm posts are common around the Gusserane district and the issue has some way to go, although a public consultation event will be part of the process.


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Memristor Combats Reverse-Bias in Perovskites – BIOENGINEER.ORG

In a breakthrough poised to reshape the future of photovoltaics, researchers have unveiled a novel solution addressing one of the most persistent challenges in perovskite solar cells (PSCs)—their vulnerability to reverse-bias conditions. These conditions, often encountered in real-world installations due to partial shading or series connections, have long threatened the stability and longevity of PSCs, despite the technology’s promising efficiency, affordability, and simplicity of manufacturing.
Perovskite solar cells have captivated the attention of scientists and engineers for their rapid evolution in power-conversion efficiencies, matching or even surpassing traditional silicon-based technologies. Their intrinsic advantages, including low-cost materials and scalable, energy-efficient fabrication methods, make them prime candidates for future widespread deployment. Yet, a critical roadblock has been their instability under reverse electrical bias, a state where the cell operates under voltage conditions opposite to their intended forward operation. This state can lead to performance degradation and even permanent damage, stalling PSCs’ path toward commercial viability.
Addressing reverse-bias stress traditionally relied on device architectural engineering aimed at boosting breakdown voltage or incorporating protective elements to withstand harsh electrical conditions. None, however, have fully eradicated the issue without adding complexity or cost. The new approach, introduced by Mohammadi, Ji, Sachsenweger, and colleagues, introduces a conceptually and fundamentally different strategy: integrating a memristor directly into the solar cell architecture, creating what they term a “Memsol.”
Memsol marries the photovoltaic function of PSCs with the dynamic electrical properties of a memristor—a device known for its memory resistance and ability to toggle between conductive and resistive states based on operating conditions. By selectively depositing an additional metal-insulator layer within the PSC’s structure, researchers engineered a memristor element sharing critical components with the solar cell itself. This integration is meticulous, ensuring the memristor operates synergistically without compromising light capture or electrical output.
The beauty of this technology lies in its self-regulating behavior. Under normal operation, the Memsol behaves as a standard high-efficiency solar cell. However, when exposed to adverse reverse-bias or shading conditions, the memristor component automatically switches to a low-resistance state, effectively bypassing the stressed cell and preventing damage. This built-in protective mechanism negates the need for external bypass diodes, which complicate module design and add costs.
Experimentation on a string of nine serially connected Memsol units revealed remarkable robustness under reverse-bias testing and illumination conditions that typically degrade conventional PSCs. The integrated memristor maintained the integrity and performance of the solar cells, seamlessly alternating between energy generation and protective bypass modes. Such adaptability under variable operational stress is an unprecedented advance in PSC technology.
Beyond testing, the implications of Memsol reach into the practical realm of photovoltaics deployment at scale. Conventional modules must integrate bulky external bypass diodes to prevent cell failure during shading or fault conditions, increasing complexity and limiting design possibilities. Memsol’s intrinsic bypass capability offers potential for simplified module architectures, improved reliability, and reduced manufacturing costs—factors critical to accelerating perovskite commercialization.
Technically, the realization of Memsol involves precision in materials engineering and understanding ion migration phenomena inherent in perovskites. The memristive switching relies on controllable filament formation within the metal-insulator interface, coupled electrically to the perovskite absorber. Researchers carefully optimized the layers to balance conductivity, switching thresholds, and durability, ensuring that the protective mechanism activates only under stress without affecting normal photovoltaic performance.
The research draws on interdisciplinary expertise, bridging photovoltaics, materials science, and electronic device engineering. Innovations include selective area material deposition, interface engineering, and electrical characterization that collectively harness memristor physics for solar energy applications—a marriage of memory devices and energy harvesting that marks a pioneering frontier.
With these developments, the scientists envision a new generation of perovskite-based solar modules that can withstand practical operational stresses previously deemed detrimental. Such technology promises to enhance lifetime, reduce maintenance, and ultimately foster trust in PSCs for commercial and industrial photovoltaic markets.
As the photovoltaic landscape seeks sustainable, efficient, and cost-effective energy solutions, overcoming stability challenges is paramount. The Memsol concept, demonstrated in laboratory conditions but with a clear roadmap for scale-up, offers an elegant, integrated pathway forward. Combined with the inherent merits of perovskite materials, this advance could significantly accelerate the commercialization timeline, opening avenues for photovoltage conversion technologies less reliant on silicon and more in tune with scalable, versatile manufacturing.
In summary, this novel integrated memristor approach signifies an extraordinary leap in the durability and practicality of perovskite solar cells. By embedding a smart, responsive bypass mechanism within the solar cell itself, researchers have unlocked the potential for PSCs to operate reliably under real-world complexities without external hardware additions. As this technology matures, it might well redefine expectations for next-generation solar energy systems, promising higher resilience, simpler designs, and lower costs that collectively can transform the renewable energy landscape.
Subject of Research: Perovskite solar cells with integrated memristor technology to mitigate reverse-bias instabilities.
Article Title: Integrated memristor for mitigating reverse-bias in perovskite solar cells.
Article References:
Mohammadi, M., Ji, F., Sachsenweger, T. et al. Integrated memristor for mitigating reverse-bias in perovskite solar cells. Nature (2026). https://doi.org/10.1038/s41586-026-10275-3
Image Credits: AI Generated
DOI: https://doi.org/10.1038/s41586-026-10275-3
Tags: breakdown voltage improvement techniquescombating reverse-bias degradation in PSCsenergy-efficient fabrication of PSCsenhancing commercial viability of PSCsimproving PSC durability under reverse biasmemristor integration in perovskite solar cellsmemristor-enhanced solar cell architecturesnovel solutions for PSC reverse-bias stressphotovoltaic device reliability innovationsreverse-bias protection in photovoltaicsscalable low-cost perovskite solar technologiesstability challenges in perovskite solar cells
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Marstek launches 2 kWh plug-in battery storage system – pv magazine India

Marstek has unveiled a plug-in storage system with a two-kilowatt-hour capacity. The device plugs into a standard household socket and is designed to store solar power from balcony systems or draw in cheap electricity from dynamic pricing tariffs.
Image: Marstek

From ESS News
Chinese battery manufacturer Marstek has introduced the Venus B, a plug-in energy storage device that can be connected via a standard Schuko socket. The system is designed for use with small photovoltaic systems and for optimizing energy costs with dynamic electricity tariffs.
The storage unit has a usable capacity of 2 kWh and is equipped with an integrated inverter. The maximum charging power from the grid is 1.5 kW. According to the manufacturer, the device can output either 800 W or up to 1.5 kW of power.
The device plugs into a wall socket and can thus absorb excess solar power from a plug-in solar system on the same circuit. Alternatively, the battery can also be charged with cheaper electricity from dynamic tariffs and discharged again when prices are higher. As is often noted, a profit may depend on round-trip efficiency.
According to Marstek, the storage system can be installed without any modifications to the existing plug-in solar system and is compatible with various photovoltaic systems.
The Venus B uses lithium iron phosphate (LFP) cells, which are said to have a lifespan of 6,000 charge cycles and a specified residual capacity of 80 percent. The battery operates with a depth of discharge of 90 percent.
To continue reading, please visit our ESS News website.
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Lawmakers weigh multiple bills to bring one-year pause on solar power facilities and solar farms – WSFA

MONTGOMERY, Ala. (WSFA) – A temporary ban on solar power facilities and solar farms could be in Alabama’s near future.
There are a number of bills, some of which would take effect with Gov. Kay Ivey’s signature, that would put a one-year pause on the construction and operation of new solar power facilities in the state.
House Bill 617 and Senate Bill 354 were heard in committee earlier this week. The House version of the bill is still waiting for a final committee vote. The Senate version of the bill passed out of committee on Tuesday.
However, both bills had amendments added to them that exclude the ban from being applied to areas of the state that are served by the Tennessee Valley Authority.
“This is not a matter of trying to shut down an industry,” said Sen. Greg Albritton (R-Range), the sponsor of SB 354. “This is simply a matter of being able to grasp what’s happening in our state and in our communities.”
If the bill were to get Gov. Ivey’s signature, they would take effect immediately.
Senate Bill 372 was carried over by a committee Thursday morning. Carrying a bill over means that lawmakers want to wait to conduct a final vote on the bill, allowing the bill’s sponsor and other lawmakers to add amendments or discuss the bill further.
The bill also looks to ban the construction or operation of new solar power facilities for one year and would only apply to the unincorporated area of any county served by the Tennessee Valley Authority. Huntsville, for example, would be exempt.
“The fact is, without the federal subsidies, the solar energy cannot stand on its own, it can’t compete in the open market,” said Sen. Larry Stutts (R-Tuscumbia), the sponsor of SB 372.
However, lawmakers in both parties expressed concerns about a potential pause.
“It seems to me that this is limiting individual property owners — farmers — the right to use their property,” said Sen. Linda Coleman-Madison (D-Birmingham).
Lawmakers in the committee voted to carry over SB 372, which means they want to work more on the bill’s language before conducting a final committee vote.
“While I’m not a huge proponent of [solar], and I see the negatives of it, it is a part of the energy equation that we have to take into consideration,” said Sen. Sam Givhan (R-Huntsville).
If SB 372 were to get Gov. Ivey’s signature, it would take effect immediately.
House Bill 618 and Senate Bill 358 are companion bills that would give the county commissions of Baldwin and Mobile counties the ability to regulate solar farms.
The bill says that the county commission can regulate the permission, construction, place or operation of solar farms in the county to protect the coastline and watershed.
Regulations would include ‘establishing standards, specifications, criteria, and conditions relating to permitting, construction, place or operation of solar farms in the unincorporated areas of the county.’
If signed into law, both bills would take effect Oct. 1.
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Copyright 2026 WSFA. All rights reserved.

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Solar Panel Coatings Market Size Forecast to USD 26.7 Billion – openPR.com

Solar Panel Coatings Market Outlook 2031
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Material Innovations Improving Solar Module Performance: The Alishan Approach – SolarQuarter

Material Innovations Improving Solar Module Performance: The Alishan Approach  SolarQuarter
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Company looks to install 17-acre solar farm in Hamburg – wivb.com

Company looks to install 17-acre solar farm in Hamburg  wivb.com
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5 sustainable living situations that are guaranteed to inspire – The Cool Down

© 2025 THE COOL DOWN COMPANY. All Rights Reserved. Do not sell or share my personal information. Reach us at hello@thecooldown.com.
Sustainable living can be a lot more attainable than you think.
Photo Credit: iStock
Sustainable living means different things to different people, and there’s no right or wrong way to do it as long as sustainability is at the core of your actions. These five situations are all very different and also very cool.
A couple in New Zealand converted a little church and the surrounding grounds into a beautiful garden compound featuring native plants, helping them to feel like they’re living with nature.
The old church features solar panels on the roof, and they have a vegetable garden that provides most of the veggies they eat year-round, saving a lot of money. On top of that, the fact that they surrounded themselves with plants native to the area offers support to wildlife as well.
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Malissa and Chris Tack of Washington state turned an empty lot into a small community featuring three tiny homes and shared amenities like a fire pit and BBQ area, as well as a vegetable garden, allowing residents to grow their own veggies.
When the lot was first purchased, it had to be hooked up with water and power, but the couple has since turned to solar panels and rainwater collection to supplement the utilities. One of the homes is available for rent on Airbnb, so anyone can experience this lifestyle.

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An off-grid couple in Hawai’i stumbled upon an incredible find while clearing part of their property. The couple found loads of vanilla vines that could be worth a lot of money, which they called a “gold mine.” But rather than taking that vanilla vine and trying to make a buck, they traded it for a truckload of other plants they’d plant on their property.
The video narrator goes on to explain that trading has become one of her favorite parts of off-grid life, allowing her to exchange plants, stories, and energy instead of money.

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This TikToker traded big city living for a yurt in the country in a close-knit rural community, and couldn’t be happier. She has an outdoor kitchen where she cooks and heats water for dishes, and she spends most of her time outside with her dog.
She and the others pay rent to live on the land — much less than she ever paid in the city — and she gets to experience the peace and tranquility of nature every day.

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A Vermont cabin owner’s solar setup is proof of solar power’s resilience, even in climates that experience harsh, snowy winters. The owner shared a picture on Reddit showing their solar setup and explained that they built the cabin in 1987, when they paid just $400 for their first solar panel and added a second panel a year later.
Those solar panels have powered the off-grid getaway ever since and still produce energy today.

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Australia's energy storage market faces a reckoning as rooftop solar threatens utility-scale economics – Energy-Storage.News

Hamilton Locke’s Matt Baumgurtel warns of a seismic shift as distributed energy resources with “zero marginal cost” reshape grid dynamics and push developers toward 6+ hour battery storage and hybrid strategies.
The Australian energy storage market stands at a critical inflexion point, where the explosive growth of rooftop solar and home batteries threatens to fundamentally undermine the business case for utility-scale generation, forcing developers to radically rethink project economics, duration strategies, and who they’re selling power to.
Matt Baumgurtel, partner and new energy lead at law firm Hamilton Locke, paints a stark picture of the challenge facing utility-scale developers: they’re now competing against distributed energy resources (DER) whose owners assign zero value to exported electricity, creating what he describes as an existential pricing threat.
“The brutally scary thing is that people who put solar on their roof and a battery storage system in their basement don’t build those assets to export electricity to the network. They do it to produce and consume their own energy,” Baumgurtel explains.

“The marginal value, therefore, of that energy spilt onto the grid, or that available capacity to the person who owns that asset, is zero.”
This dynamic creates a perverse competitive landscape. When aggregated through virtual power plants (VPPs), these residential systems become “the single largest generator” in the market – one that will bid electricity prices down aggressively because homeowners view any payment for exported power as pure profit on energy they weren’t planning to sell anyway.
“Any dollar an owner of rooftop generation or home battery storage gets from the grid for that generation, or use of that storage capacity, is a bonus, i.e., these assets were not acquired in order to generate revenue, and hence any revenue has a perceived marginal cost of AU$0”, Baumgurtel says.
“It’s great, unless I own utility-scale assets, because now I’m competing with assets which will be traded as if they have a zero marginal cost.”
This competitive pressure feeds into what Baumgurtel identifies as the single most important question facing the Australian energy market: at what price level will the supply-demand curve eventually flatten once sufficient storage enters the system?
Several industry stakeholders have coined this “the flat duck” question, a reference to the famous duck curve that shows the gap between solar generation and evening demand. While everyone agrees the curve will eventually flatten as storage proliferates, enormous uncertainty surrounds the price point where equilibrium occurs.
“The question that everyone is trying to solve for when everyone has an opinion, and no one will be right, is: at what height or price will the flat duck fly?” Baumgurtel says.
“If you go back in time, back to when coal was the only source of electricity, coal ran 24/7 at about AU$64 (US$45.61). The question is, if you accept we’re going to get back to a flat price curve, at what price is that market going to settle? If the LCOES of your project exceeds the market-clearing price, you have a problem.
“This uncertainty stymies investment, particularly with continued reductions in BESS CapEx and substantial reductions in PV CapEx being forecast. So, investors wait, but if they wait too long, they will miss the window and will struggle to deploy capital.”
Whether that price settles at AU$45/MWh or AU$85/MWh represents “an enormous question” that will determine project viability across the sector. Baumgurtel notes that current market forecasts have a statistical probability of correctness around 64%, meaning the actual outcome could fall anywhere within a massive range.
Against this backdrop of uncertainty, Baumgurtel identifies three major trends reshaping the Australian energy storage landscape. The first and most significant: “duration is king”.
“The game of 2-hour battery storage is done. That was two years ago. Last year was the year of the 4-hour battery storage system. This year is the year of 6-hours+ of storage,” Baumgurtel says.
“Unless your project is 6-hours+ of storage, then you’re not going to get away.”
This shift reflects the evolution of the storage value proposition. Early batteries were built primarily for frequency control ancillary services (FCAS) – grid stability services that commanded premium prices.
Baumgurtel recounts how developers would install 2-hour lithium batteries at substations specifically to avoid FCAS charges, with some projects paying AU$3-5 million per quarter in penalties.
But that market has been saturated. “FCAS has been dead for two years,” Baumgurtel says bluntly. “People are now publishing articles about who killed FCAS. FCAS was six feet under the ground a year ago.”
Today’s storage market is about energy arbitrage – shifting solar generation from the midday glut to the evening peak.
“That’s shifting generation from typically 10:00 till 14:00, moving to 18:00 till 22:00,” Baumgurtel explains. “And your ability to arbitrage requires you to have a much bigger energy ‘bucket’ to fill up and empty each day.”
Longer duration also opens the door to alternative storage technologies beyond lithium-ion.
“You don’t need lithium anymore. Lithium becomes quite expensive on a MWh basis because the balance of plant cost is linear,” Baumgurtel says. “You can go to different forms of energy storage: sodium, flow [batteries], liquid air, even modular/small-scale pumped hydro.”
The second major trend Baumgurtel identifies is what Hamilton Locke has coined “battery-led hybrid” – a development strategy that flips the traditional solar-plus-storage model on its head.
“Build the battery now for 4-6 hours, have approvals, or at least the land available to put PV on later, like [in] five years,” Baumgurtel explains.
Developers sign five-year tolling agreements with trading houses, which provide stable revenue to support project finance, while securing land rights and approvals for future solar development.
“You build a battery, you sign your tolling agreement, you can finance off the back of the tolling agreement, and in five years, you’ve got an asset which is probably 50-60% repaid, and then add solar PV,” he says.
The strategy hedges against current market uncertainty while positioning developers to capitalise on expected improvements in solar economics. Baumgurtel notes that Bloomberg forecasts the levelised cost of energy (LCOE) for ground-mount solar will decline 30% by 2030, driven by automation and robotics. However, he believes the actual reduction will exceed 40%.
“The LCOE on solar is going down substantially, driven by economies of scale, AI-enabled automation/robotics, including remote piling and panel installation. Construction becomes automated and runs 24/7 with onsite labour only required for repairs and troubleshooting,” Baumgurtel says.
In five years, developers can either sell the battery-plus-land package as ‘PV ready’ or build out the solar themselves and refinance under a hybrid power purchase agreement (PPA).
“Most people say that energy prices will pick up over the next 10 years,” Baumgurtel notes. “So, they’re saying that the flat duck is going to fly at closer to AU$80 than AU$40.”
If that forecast proves correct, developers building solar at an LCOE of AU$38/MWh, combined with long-duration storage at AU$20/MWh, could profitably sign PPAs at around AU$90/MWh.
“Now, is it going to be AU$90? Is it going to be AU$80? There’s the game, right?” Baumgurtel says.
“If it’s AU$40, game over. But it probably will not be, and it will not be because there will not be enough energy generation built in that time period. After all, everything is delayed for the grid and planning.”
The third trend – continued penetration of distributed energy resources – has been “supercharged” by the federal government’s Cheaper Home Batteries Program, which Baumgurtel says will drive the installation of 100,000 home batteries starting in January, with month-on-month growth expected.
Hamilton Locke recently advised on the Aware Super-Birdwood transaction, which saw AU$2 billion of pension fund capital flow into DER assets, which Baumgurtel claims is “the single largest DER investment in the world”.
However, he warns of potential safety and quality concerns reminiscent of Australia’s ill-fated home insulation scheme.
“There’s always a risk in deploying huge amounts of small projects, because you rely on a workforce which is probably not that experienced, if not qualified to do it,” Baumgurtel says.
Despite these concerns, the DER rollout will continue, facilitated by regulatory changes and VPP aggregation platforms that are making residential resources increasingly grid-interactive.
Beyond these three primary trends, Baumgurtel identifies significant consolidation occurring among independent power producers (IPPs), driven by the reality that “cost of capital is king in this game now”.
“You need to get big, or you need to find someone who’s big to buy you,” Baumgurtel says. Low-return institutional capital, pension funds, sovereign wealth funds, and insurance companies are increasingly dominating the sector, seeking steady returns and taking long-term views with less project gearing.
Meanwhile, traditional energy retailers are moving in the opposite direction.
“Look at what AGL and Origin are doing. They are becoming asset-light. They do not want to own generation. They want to be retailers, not manufacturers of electricity because the margins are made way, way, way bigger and better,” Baumgurtel explains.
“They’re signing PPAs. They’re not owning assets.”
This consolidation creates a regulatory challenge, as concentrated ownership of generation assets raises competition concerns, even as the sector requires exactly the kind of patient, low-cost capital that only large institutional investors can provide.
The picture Baumgurtel paints is of a market in profound transition – one where the old rules no longer apply and the new equilibrium remains uncertain. Utility-scale generators must now accept that they primarily serve commercial and industrial loads rather than residential customers, who are increasingly energy self-sufficient.
With 65% of Australia’s current generation capacity coming from coal, which will likely disappear within 15 years, there will be room for utility-scale renewables. But exactly how much room – and at what price – remains the multi-billion-dollar question keeping developers awake at night.
For now, the smart money is betting on battery storage first, solar later, and duration above all else.
The Energy Storage Summit Australia 2026 will be returning to Sydney on 18-19 March. It features keynote speeches and panel discussions on topics such as the Capacity Investment Scheme, long-duration energy storage, and BESS revenue streams. ESN Premium subscribers receive an exclusive discount on ticket prices. 
To secure your tickets and learn more about the event, please visit the official website.

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Saudi Arabia Solar Energy Market: Renewable Expansion, Vision 2030 & Growth Outlook – vocal.media

Rising need to reduce carbon emissions, declining solar technology costs, and Vision 2030's ambitious renewable energy targets are driving solar energy adoption in Saudi Arabia, supported by favorable government initiatives, increasing energy security focus, and massive infrastructure investments in photovoltaic and concentrated solar power projects. According to IMARC Group's latest data, the Saudi Arabia solar energy market size was valued at USD 8.3 Billion in 2025. Looking forward, IMARC Group estimates the market to reach USD 145.4 Billion by 2034, exhibiting a CAGR of 37.39% from 2026-2034.
Solar energy now represents a cornerstone of Saudi Arabia's economic diversification strategy, transforming the Kingdom from one of the world's largest oil exporters into an emerging renewable energy powerhouse. The market benefits from exceptional solar irradiance levels among the highest globally, strategic government backing through Vision 2030, and record-breaking low electricity prices from competitive project auctions. Major technologies include solar photovoltaic systems for utility-scale farms and rooftop installations, and concentrated solar power plants with thermal storage capabilities, with developers prioritizing cost efficiency, energy storage integration, and grid stability to support the Kingdom's goal of generating 50% of electricity from renewables while creating new export industries in green hydrogen and sustainable energy.

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Saudi Arabia Solar Energy Market Growth Drivers:
Saudi Arabia's Vision 2030 framework drives unprecedented solar energy expansion through strategic investments and ambitious capacity targets. The Kingdom aims to generate 50% of electricity from renewables by 2030, requiring approximately 130 GW of renewable capacity with 58.7 GW expected from solar installations. A USD 32 Billion investment pipeline for renewable projects through 2030 demonstrates government commitment. In July 2024, the Public Investment Fund signed 3 agreements to localize manufacturing and assembly of solar generating equipment through the Renewable Energy Localization subsidiary. In June 2024, the Ministry of Energy launched a geographic survey installing 1,200 measurement stations across 850,000 square kilometers to identify optimal locations for solar development. These initiatives position Saudi Arabia as a regional renewable energy hub while reducing dependence on fossil fuels and diversifying economic revenues.
Saudi Arabia achieves some of the world's lowest solar electricity prices through competitive auction mechanisms managed by the Saudi Power Procurement Company. The Shuaiba solar PV project set a world record for the lowest cost of electricity produced by solar energy. A flood of low-cost Chinese photovoltaic panels combined with a 40% drop in battery prices in 2024 dramatically improved project economics. In September 2024, ACWA Power secured USD 2.58 Billion in financing for 3 large-scale solar projects in Haden, Muwyah, and Al-Khushaybi totaling 5,500 MW capacity. In July 2024, SPPC completed power purchase agreements worth USD 3.3 Billion for 3 photovoltaic projects with 25-year contract terms. These competitive tariffs and long-term revenue guarantees attract substantial international investment while ensuring affordable electricity for domestic consumers and industries.
The Kingdom strategically deploys solar energy to reduce domestic oil consumption, freeing petroleum for higher-value export markets and industrial applications. Solar power provides energy security through diversified sources independent of fuel supply chains and geopolitical disruptions. The technology offers long-term stability with zero fuel costs and minimal operational expenses once infrastructure is commissioned. Saudi Arabia's exceptional solar irradiance enables year-round generation with capacity factors significantly exceeding global averages. By replacing oil-fired power stations with renewable generation, the Kingdom maximizes petroleum utilization for chemicals, plastics, and export revenues. Energy storage systems and grid infrastructure investments ensure reliable electricity supply while solar capacity scales. This dual strategy optimizes economic returns from hydrocarbon resources while building sustainable energy infrastructure aligned with global decarbonization trends and Paris Agreement commitments.
Saudi Arabia Solar Energy Market Trends:
Saudi Arabia leads the Gulf Cooperation Council with 2.1 GW operational photovoltaic capacity and 5.3 GW under construction anticipated for commissioning. The 1.5 GW Sudair Solar Plant ranks among the world's largest operational facilities, while multiple gigawatt-scale projects advance through development phases. According to Rystad Energy projections, the Kingdom targets installing over 70 GW of solar capacity by 2030, representing nearly six times current output. In November 2023, Saudi Power Procurement Company released a request for qualification for the fourth round of solar projects totaling 3,700 MW capacity. Major developments span Northern and Central regions around Riyadh, Western regions near Jeddah, Eastern provinces, and Southern territories. These utility-scale installations leverage abundant land availability, exceptional irradiance levels, and economies of scale delivering globally competitive electricity pricing while supporting industrial electrification and economic diversification objectives.
Grid-scale battery storage deployment accelerates alongside solar projects to manage intermittency and ensure reliable electricity supply as renewable penetration increases. Saudi Electricity Company and national utilities invest substantially in digitalization, automation applications, and smart network infrastructure. Storage requirements will grow significantly as the Kingdom approaches its 50% renewable electricity target, creating opportunities for lithium-ion batteries and emerging storage technologies. The Gulf Cooperation Council Interconnection Authority oversees regional transmission networks, enabling power trading, balancing mechanisms, and enhanced energy security across member states. Advanced forecasting systems, demand response capabilities, and flexible grid operations support solar integration while maintaining system stability. These technological advancements enable higher renewable energy shares without compromising electricity reliability, supporting Saudi Arabia's transformation into a clean energy leader while ensuring uninterrupted power for industrial operations and urban centers.
Saudi Arabia positions itself as a first-mover in the global green hydrogen economy through massive renewable energy-powered production facilities. The NEOM Green Hydrogen Company, a joint venture between NEOM, ACWA Power, and Air Products, develops a facility powered by 4 GW of dedicated solar and wind capacity producing green ammonia for export markets. The Yanbu Hydrogen Hub represents another strategic initiative establishing the Kingdom as a clean hydrogen production and export center. These projects leverage low-cost renewable electricity, abundant land, and strategic geographic location for shipping to European and Asian markets. Green hydrogen production creates new revenue streams beyond traditional petroleum exports while supporting global decarbonization efforts in hard-to-abate sectors including steel, chemicals, and heavy transportation. Additional hydrogen facilities advance through development stages, positioning Saudi Arabia to capture significant market share in the emerging hydrogen economy valued at hundreds of billions annually.
Recent News and Developments in Saudi Arabia Solar Energy Market
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