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Rajasthan and Gujarat accounted for 53.2% of the country’s solar generation during the quarter
November 4, 2026
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India generated approximately 56.9 billion units (BU) of solar power in the third quarter (Q3) of calendar year (CY) 2026, up 48.6% year-over-year (YoY) from 38.3 BU in Q3 2025, according to data from the Central Electricity Authority (CEA). However, generation declined 9.4% quarter-over-quarter (QoQ) from 62.8 BU in Q2 2026.

Monthly generation increased through the quarter, from 18.1 BU in July to 18.6 BU in August and 20.2 BU in September.
Rajasthan remained India’s largest solar power-generating state, contributing 19.8 BU, equivalent to 34.8% of national generation. Generation in the state increased 2.1% QoQ and 37.7% YoY.
Gujarat followed with 10.5 BU, accounting for 18.4% of the total. While generation more than doubled YoY, increasing 116.6%, it declined 26.6% from the previous quarter. Together, Rajasthan and Gujarat contributed 30.3 BU, representing 53.2% of India’s solar generation.
Tamil Nadu generated 6.9 BU, representing 12.1% of the national output, an increase of  7.8% QoQ and 39.1% YoY.
Karnataka contributed 5.1 BU, accounting for 8.9% of the total. Generation fell 15% QoQ but increased 25.8% YoY.
Maharashtra generated 3.4 BU during the quarter, accounting for 6%. Generation declined 5.6% QoQ but rose 65.4% YoY.
The five leading states, Rajasthan, Gujarat, Tamil Nadu, Karnataka, and Maharashtra, together accounted for approximately 80% of the country’s solar power generation during the quarter.
Regional Solar Generation
The Northern region led solar power generation with 22.3 BU, accounting for 39.2% of the national total. The Southern region followed with 17.8 BU (31.3%), while the western region generated 16.3 BU (28.6%).
The Eastern and Northeastern regions contributed 0.35 BU and 0.13 BU, respectively.
Compared with the previous quarter, generation in the Northern region remained broadly unchanged, while the Southern region recorded a 4.3% decline.
The Western region experienced the sharpest quarterly decline, with generation falling 23% to 16.3 BU. Gujarat accounted for an estimated 78% of the regional reduction, reflecting its significant share of the region’s solar generation.
Madhya Pradesh and Chhattisgarh also recorded declines of 25.2% and 35.9%, respectively, while Maharashtra’s output fell during the quarter.
The decline coincided with the monsoon season, when cloud cover and reduced solar irradiation can affect generation. However, the available data does not establish how much of the reduction resulted from weather conditions, grid curtailment, or other operational factors.
Transmission Constraints and Seasonal Variations
Apart from seasonal changes in solar irradiation, transmission and evacuation constraints remain a concern for solar power generation in several states.
Industry surveys conducted by Mercom identified midday curtailment, limited availability of interstate transmission system bays, delays in transformer commissioning, and incomplete evacuation corridors as continuing challenges.
Industry participants also reported severe curtailment at certain substations in Rajasthan, while connectivity and evacuation constraints remained a concern in both Gujarat and Rajasthan.
Although these constraints can prevent available solar generation from reaching the grid, the reported generation data alone cannot quantify their contribution to the decline in Q3 output.
The Eastern and Northeastern regions continued to contribute a relatively small share of national solar generation, reflecting their smaller installed capacity base.
As of February 2026, the two regions together had approximately 2.43 GW of installed solar capacity, representing around 1.7% of India’s total at that time. Seasonal weather conditions may also have influenced generation during Q3.
Solar generation depends not only on installed capacity but also on irradiation levels, plant availability, and grid conditions. During an industry discussion in Andhra Pradesh in September 2026, participants highlighted how cloud cover, rainfall, mist, and other atmospheric conditions can affect solar output.
Separately, industry experts highlighted differences between satellite-derived and ground-measured solar irradiation, underscoring the importance of accurate resource assessments for generation forecasting and project planning.
Navyashree
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New photovoltaic panels on campus rooftops will generate renewable energy to power UMass Boston’s buildings.

On the roof of the Quinn Administrative Building, a new set of solar photovoltaic (PV) panels gleams in the November sun. The panels, installed earlier this year, are part of the “Bright Beacons Solar Project,” which will place this clean renewable power source on many of UMass Boston’s rooftops.
The UMass Boston campus already hosts photovoltaic panels on several buildings, including University Hall and the West Parking Garage. In addition to the Quinn Administrative Building, panels are currently being installed atop McCormack Hall. The Bright Beacons Project also includes plans to place panels on top of the Campus Center following roof repair work in 2027.
The new panels almost double UMass Boston’s current renewable electricity output, by generating approximately 2,000 MWh in total annually—enough to power the needs of 280 average homes for a year. All together, these solar projects will power approximately 4.5% of the campus’s total electricity needs, reducing the power that UMass Boston draws from the electrical grid that is already overburdened.
“We’re really ramping up our solar power generation for a number of reasons,” said Mike Kearns, the associate vice chancellor for facilities at UMass Boston. “The state has set a goal that by 2050, our fossil fuel emissions be reduced by 95% of 2004 levels. That has encouraged us to implement a number of clean energy projects.”
The panels are also a sound financial decision. The university also received a grant from the Massachusetts Department of Energy Resources’ “Leading By Example” program, and additional support is being provided by federal tax credits that were newly available to non-profits like UMass Boston when the project was contracted. Once these are taken into account, the panels should pay for themselves in roughly four years.
Solect Energy has begun installing the McCormack Hall panels. The Campus Center will receive its first panels once the building’s new roof is completed.
On-campus solar power generation capacity was identified as part of UMass Boston’s Energy and Carbon Master Plan, which was first published in 2023. Through the new photovoltaic panels, a new seawater-based heat-shift chiller system that will replace three natural gas boilers, and many upgrades that will improve energy efficiency, UMass Boston is building a more sustainable campus through renewable energy. The university is also decarbonizing its energy sources significantly, reducing carbon emissions and contributing to the fight against global warming. 
“The Bright Beacons project is a vital step in making UMass Boston a more climate resilient campus,” said Janna Cohen-Rosenthal, UMass Boston’s sustainability and resiliency planner. “As a university, we use a lot of energy to provide critical education and research. By having renewable energy sources here on campus, we’re able to showcase solutions for our students while also lowering energy costs and reduce our reliance on fossil fuels.”
For those who are interested in learning more about solar energy and decarbonization efforts, the Office of Campus Planning and Sustainability offers tours of the UMass Boston campus for student clubs, classes, and other groups. These guided walks, led by Cohen-Rosenthal and her student sustainability assistants, highlight UMass Boston’s unique sustainability adaptations, both new and old.
100 Morrissey Blvd.
Boston, MA 02125
617.287.5000
Copyright © University of Massachusetts Boston

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A former gravel quarry is set to become the lifeline that keeps two remote Far North Queensland communities running when the next cyclone strikes.
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LONGi Converts TOPCon Lines to HPBC 2.0 in Chuzhou, Targeting 6.8 GW  energynews.pro
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by Tony Wood, David Blowers

An energy revolution is at hand in Australia, as the arrival of home batteries combines with the falling cost of solar panels to transform the centralised grid. But for its benefits to be spread fairly and efficiently, governments must avoid the mistakes of the past by rejecting expensive subsidies and by setting charges that reflect the true cost of providing electricity.
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In the first phase of large-scale growth in solar, lavish feed-in tariff schemes introduced between 2008 and 2011 encouraged 1.4 million households to install panels on their roofs – the highest proportion of households of any country.
State governments began winding back the schemes in 2012, but by the time the last runs out in 2028 they will have cost the economy $9 billion. Worse, people who chose not to install solar, or could not afford it, have paid for the schemes through a subsidy to solar PV owners worth $14 billion.
The schemes have reduced emissions, but at a very high price. There are much cheaper ways to tackle climate change.
In the coming second phase of solar growth, state governments should introduce new electricity tariffs that encourage consumers to use less power in periods of peak demand. The tariffs would remove a subsidy to solar PV owners, making their panels less profitable in the short term, but they would also open the door to radically new uses of power that will transform the grid and cut both costs and emissions.
As home batteries come on the market from as early as next year, people will be able to store power from their solar panels during the day then use it in the evening when demand on the network is greatest. This will reduce the load on the network, cutting power prices not just for solar panel owners but for everyone.
But network businesses have some difficult decisions ahead to ensure they remain profitable. Some infrastructure in electricity networks may become redundant as consumers draw less power from the main grid. Governments must decide now who will pay for these asset write-downs.
The journey to a new electricity system has begun. If we manage the transformation poorly, consumers will pay again. If we do it well, everyone can benefit from a more efficient, sustainable and affordable system.
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Published 12:24 pm Wednesday, November 4, 2026
By Ashlyn Little
The Vernon Parish Police Jury has voted unanimously to lift its temporary moratorium on solar farm developments, officially adopting a heavily revised regulatory ordinance.
The decision came during a special call meeting on Friday, following a rapid series of revisions to Ordinance No. 9 of 2025. Just four days earlier, during their regular monthly meeting on Oct. 19, jurors tabled the amended ordinance. They did so on the advice of legal counsel and District Attorney Terry Lambright, who requested time to thoroughly review the document.
During the Oct. 23 special meeting, Lambright presented legal recommendations that were integrated into the ordinance prior to its official adoption.
“I know there’s been a lot of discussions by the jury and work by the public with regards to trying to come up with something that is livable for everybody,” Lambright said. “I looked through it with a legal perspective and put in some changes.”
The amended ordinance introduces stringent new safeguards to protect parish infrastructure and local citizens, headlined by a mandatory traffic management framework. Under the new rules, any proposed solar development must secure approval for a comprehensive traffic plan from the parish road manager before a permit can be issued. To mitigate neighborhood disruptions and prevent infrastructure damage, the policy dictates that contractors must construct and utilize temporary access roads during the construction phase whenever possible.
Property protections were also heavily fortified, particularly regarding setbacks and visual screening:
Expanded setbacks: The required buffer zone along public roads was doubled from 150 feet to 300 feet, measured from the edge of the currently maintained right-of-way. Furthermore, the ordinance now mandates a setback of at least 500 feet from the property line of any private property, including residences, agricultural land, and occupied structures.
Vegetative barriers: Permitting now requires a year-round opaque vegetative barrier at least 6 feet in height, consisting of native trees and shrubs adjacent to neighboring property lines. Existing on-site vegetation may be kept if it meets these standards. Otherwise, developers must plant either a 35-foot-deep barrier of new plant material or maintain a 50-foot-deep natural barrier.
Life-of-facility warranties: All landscaping must be maintained and warrantied for the entire lifespan of the facility, with unhealthy plant material replaced immediately.
Maintenance and oversight protocols saw significant revisions, as well. Developers must submit a routine maintenance schedule covering grass cutting and landscaping upkeep. Crucially, the jury added rules governing chemical usage: any herbicide or pesticide application must include a formal justification, and chemicals unapproved for agricultural use are strictly banned from solar sites.
Acting on a recommendation from Lambright, the jury also established a dedicated enforcement section, migrating several oversight clauses out of the general maintenance plan. The new enforcement framework grants courts the authority to award court costs and attorney’s fees to the parish when ruling against non-compliant operators. Additionally, the regulations mandate that if a facility causes an adverse effect on adjoining properties during either construction or operation, the owner must actively work with the affected resident to correct the issue.
Vernon Parish resident Stacy Merchant spoke during the meeting, thanking the police jurors and Lambright for addressing the community’s concerns since the August moratorium was enacted.
“Thank you for answering my phone calls and meeting me numerous times. In my opinion, we are way better off today than we were when this process started,” Merchant said, emphasizing his attendance at the meetings was driven solely by a desire to see what is best for the parish.
Following the official adoption of the amended ordinance, Police Jury President James “Jim” Tuck reflected on the delicate balance between community protection and economic growth, acknowledging the parish’s need for new development.
“People just don’t have the money in their pockets, there’s not near as many jobs and that’s something this jury has realized is a big problem we need to address,” Tuck said. “But we’re also concerned for our citizens, and although we may not make 100 percent of them happy, we have to weigh out what’s best for the whole parish.”
The Vernon Parish Police Jury is scheduled to hold its next committee meeting at 5 p.m. Nov. 9, at 5 p.m., followed by its regular session at 10 a.m. Nov. 16. Both meetings will take place at the Parish Government Complex Building, located at 300 S. Third Street in Leesville.

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Arevon marks 10 years of operations at five California solar plants totaling 544 MWdc  energynews.pro
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According to the latest data from the US Energy Information Administration (EIA), more than 16% of new utility-scale solar capacity added in the country between January and September 2026 was co-located with operational battery storage. This represents a substantial increase from the 2% recorded in 2017, highlighting how rapidly the combination of solar and batteries is gaining ground.

The trend is expected to accelerate. Based on projects scheduled to enter commercial operation during the final three months of 2026, the EIA estimates that the proportion of new solar capacity paired with battery storage could reach 19% for the full year. Project plans submitted for 2027 and 2028 point to an even stronger increase, with the share expected to exceed 30%.

The growing integration of battery storage reflects a changing economic environment for solar generation. In electricity markets with a high penetration of solar power, wholesale prices tend to fall during periods of strong solar output and rise as generation declines.

Co-located battery systems allow operators to manage when electricity is delivered to the grid. Instead of exporting all their solar generation immediately, plants can store part of their output and release it later, when market prices are more favourable.

This flexibility can help developers maximise the economic value of their combined generation and storage assets, while making solar power more adaptable to changing market conditions.

The US Southwest leads the trend

The deployment of co-located solar and battery capacity is particularly significant in southwestern states, where solar power accounts for a larger share of total electricity generation capacity than the national average.

As of September 2026, solar photovoltaic installations represented 13% of total utility-scale generating capacity in the United States. Of that solar capacity, 18% was co-located with battery storage.

California, Arizona, New Mexico and Nevada stand out: the proportion of solar capacity paired with batteries in these states is more than twice the national average.

These figures underline the importance of regions with high solar penetration in driving the integration of storage technologies into the US electricity system.

The EIA monitors these developments through its EIA-860 and EIA-860M data collection programmes, which provide information on utility-scale power plants, including their technical characteristics and operational status.

Although solar and battery installations at the same site do not always enter commercial operation simultaneously, the agency’s monthly data allows it to track the development of both technologies and identify projects that combine them.

The figures point to a structural shift in the US solar market: battery storage is increasingly becoming part of the development strategy for new utility-scale photovoltaic capacity, rather than a separate addition to the power system.

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Context: With the release of ALMM List-II for solar cells, India has taken a significant step toward deepening domestic manufacturing by aligning module deployment with locally manufactured cells.
CEEW Analysis: The list enables greater demand certainty and encourages vertical integration; however, domestic cell capacity still falls short of listed module capacity and is constrained by systemic challenges of high capital expenditure, reliance on imported machinery, and more.
Recommendation: Scaling cell manufacturing through PLI-backed capacity expansion, developing domestic supply chains and workforce skills, and supporting R&D for high-efficiency technologies will be essential to realise the full benefits of List-II.
The push for domestic vertical integration for solar manufacturing, where manufacturers produce both cells and modules, has entered a new phase. In July 2025, the Ministry of New and Renewable Energy (MNRE) released the first version of the Approved List of Model and Manufacturers (ALMM) List-II, covering solar cell models and manufacturers.
Until now, only ALMM List-I, initially introduced in 2021, was in effect, and it only applied to domestic manufacturers of solar photovoltaic (PV) modules. ALMM List-I was temporarily paused due to insufficient domestic module manufacturing capacity, but was reinstated in 2024. Since then, solar PV module imports declined from USD 4,353 million in FY2024 to USD 2,151 million in FY2025, while module manufacturing scaled up by 12 times, from 8.2 GW to 100 GW, from March 2021 to August 2025. As of October 2025, the ALMM List-I enlisted module manufacturing capacity has further increased to 119.8 GW.
Starting June 2026, module manufacturers listed in List-I will be required to buy cells only from List-II manufacturers for modules installed in India. Both ALMM lists aim to anchor demand for domestic solar production, ensure quality control and reliability, and discourage cheaper imports. The ALMM List-II addresses several policy gaps in domestic solar cell manufacturing and is poised to significantly impact domestic module production and deployment. However, other persistent challenges continue to plague the Indian solar cell industry.
The list comprises seven companies, cumulatively making up 17.88 GW of solar cell manufacturing capacity. This accounts for 60 per cent of India’s total estimated cell manufacturing capacity of 29.66 GW. This estimate has been derived by taking a sum of the manufacturing capacities across different firms mentioned in Sinovoltaics, and compared and verified with the manufacturing capacities of companies such as Jupiter, Renew, Tata power, Waaree, First Solar, Emmvee as well as the latest revision of ALMM List-I .
Three cell technologies are currently listed: 
As of September 2025, six out of seven manufacturers enlisted in ALMM List-II also operate module production lines, with a combined module manufacturing capacity of 28.4 GW (Figure 1). Among these, Emmvee, Mundra, Premier Energies and Tata Power produce both PERC and TOPCon modules. However, the cell manufacturing capacities of these firms are limited—Premier Engine has PERC and Emmvee has TOPcon—with only Mundra producing both. Jupiter is the only manufacturer under the ALMM List-II that produces only solar cells and no modules; however, it has announced plans of solar module production by the end of 2025.
The list also indicates that cell manufacturing capacity is regionally clustered (Figure 2), with Gujarat and Tamil Nadu together making up nearly three-fourths of the listed cell manufacturing capacity.
These peculiarities of the domestic solar market have most likely determined the following key provisions of ALMM List-II:
List-II provides comprehensive support to domestic social cell production by going beyond policies such as import duties and the Domestic Content Requirement (DCR) mandate. The latter promotes the use of domestically manufactured cells and modules only for specific projects such as Central Public Sector Undertaking (CPSU) Scheme Phase-II for setting up state or central-supported grid-connected solar PV projects, the PM Surya Ghar Yojana for rooftop solar, and the PM-KUSUM programme for off-grid solar PV installations like solar pumps. In contrast, List-II will unlock broader domestic demand from utility-scale solar projects and solar components of hybrid systems, which are not covered under DCR-mandated schemes. 
Even projected data promises greater demand. In FY25, India installed 23.83 GW of solar PV capacity, all of which was ALMM List-I compliant. To meet its renewable energy targets of around 292 GW by FY2030, annual solar PV installations between FY2025–26 and FY2029–30 would need to be about 37 GW per year, creating a steady demand for List-II solar cells. A recent study by the Council on Energy, Environment and Water (CEEW) finds that a high-generation mix of 600 GW of clean energy by 2030 would require 377 GW of solar installations, translating to an annual capacity addition of 43.47 GW. This would be slightly higher than India’s estimated 42 GW of solar cell manufacturing capacity by 2026, ensuring a sizable market, while preventing overcapacity and encouraging manufacturers to scale up.
Finally, demand for solar cells will be redirected towards List-II participants by discouraging cheaper imports. As of October 2025, Chinese solar cells are priced at USD 0.042 per Wp (INR 3.57 per Wp). After adding a 20 per cent Basic Customs Duty (BCD) and a 7.5 per cent Agricultural Infrastructure and  Development Cess (AIDC), the final cost rises to USD 0.053 per Wp (INR 4.50 per Wp). In comparison, domestic solar cells are priced around USD 0.077 per Wp (INR 6.54 per Wp), making them 45 per cent more expensive and less competitive than imported solar cells, even after implementation of the import duties. 
With the implementation of ALMM List-II, List-I manufacturers must source cells only from List-II, effectively eliminating competition from cheaper imported cells in the domestic market. Further, the 30 per cent Anti-Dumping Duty (ADD) imposed by the Directorate General of Trade and Remedies (DGTR) raises the landed price of imported cells to USD 0.07 per Wp (INR 5.85 per Wp), bringing it closer to the domestic solar cell price.
The relatively higher cost of domestic cells will trigger a domino effect, increasing domestic module installation and tariff costs. The rise in solar cell costs will lead to a rise in domestic module cost, by USD 0.024 per Wp. An increase of USD 0.01 per Wp in module costs leads to an increase of domestic solar tariffs by INR 0.06 per unit. As a result, domestic tariffs may increase by INR 0.14 per unit.
Vertical integration will be critical to improving cost competitiveness. It enables better quality control, reduced logistical overheads and economies of scale, all of which have supported the competitive advantage of  Chinese manufacturers. Currently, there are only 15 vertically integrated manufacturers with a cell manufacturing capacity of 29.66 GW, out of which 7 come under the ALMM List-II with a total capacity of 17.10 GW. In contrast, the ALMM List-I has a total of 102 manufacturers with a listed capacity of 119.8 GW, implying that 87 manufacturers with 90.14 GW of cumulative module manufacturing capacity are not vertically integrated. Further, the Production Linked Incentive (PLI) scheme supports a total of 48.3 GW of solar cell manufacturing capacity expansion, 36.5 per cent of which has already been established (Figure 3).

The cumulative solar cell manufacturing capacity upon the establishment of PLI-supported capacity can be estimated to be 60.34 GW (Figure 3). The enlisted capacity under ALMM List-II is thus likely to expand further, but would still fall 59.66 GW short of the 119.8 GW module manufacturing capacity (Figure 4).

Without this additional solar capacity, nearly 50 per cent of the enlisted manufacturing capacity may become ineligible for domestic deployment from June 2026, except for certain special segments where sourcing from ALMM List-I (a) will be permitted. These include government projects under net-metering, behind-the-meter, and open-access mechanisms commissioned before 1 June 2026. Over the longer term, non-vertically integrated module manufacturers will need to either secure a reliable supply from existing solar cell manufacturers or invest in building cell production capacity themselves. 
Bridging the 59.66 GW cell manufacturing gap will require USD 4.18 billion (INR 35,500 crore) of investment, as the capital expenditure required to establish cell manufacturing is USD 70 million (INR 595 crore) per gigawatt. The capital expenditure is calculated by taking the average of the values mentioned in Draft Red Herring Prospectus (DRHP) documents released by Vikram Solar and Premier Energies. Due to the capital-intensive nature of solar cell production, scale-up is likely to be led by larger, established firms. This may result in an ecosystem where a limited number of vertically integrated manufacturers dominate cell production, supplying both captive module lines and non-vertically integrated module manufacturers.
While the ALMM List-II supports domestic solar cell manufacturing by restricting imports and creating assured domestic demand, it does not address the broader structural ecosystem challenges. The sector continues to face high capital expenditure and an overreliance on imported machinery and key consumables such as silver paste. This reliance limits the scope for domestic R&D and technology commercialisation, since much of the specialised know-how of manufacturing processes rests with Chinese equipment manufacturers. Moreover, cell manufacturers face a shortage of skilled process engineers and technicians, limiting their ability to optimise production lines for high-efficiency solar cells and achieve higher throughputs .
If provided with timely capacity expansion and targeted policy interventions to overcome these constraints, ALMM List-II can serve as a catalyst for scaling up vertical integration, advancing technology leadership, and stimulating demand in upstream segments such as ingot-wafer and polysilicon production. 
Spandan Biswas is a Research Analyst, and Ajinkya Kale is a Programme Associate at the Council on Energy, Environment and Water (CEEW). Send your comments to [email protected].

Can rooftop solar schemes scale for Indians who don’t own rooftops?
Connected, not yet fully converted—India’s LPG story in numbers
How rooftop solar system sizing could inflate India's power subsidy bill
Council on Energy, Environment and Water
ISID Campus, 4, Vasant Kunj Institutional Area
New Delhi – 110070, India
 +91 11 4073 3300
  [email protected]
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PR Newswire
04 Nov 2026, 06:41 GMT+10
TYAGARAH, Australia, Nov. 3, 2026 /PRNewswire/ — Sungrow, the leading global PV inverter and energy storage system provider, partnered with ReSolve Global, a solar panel recycling facility in the Northern Rivers, supporting the next stage of Australia’s clean energy transition.

Closing the Loop: Sungrow Sponsors Solar and Storage System to Power Northern Rivers Solar Recycling Hub
As Australia’s rooftop solar uptake continues to grow, so does the number of panels reaching the end of their working lives. The NSW Government recently announced consultation on Australia’s first mandatory solar panel product stewardship scheme, aimed at ensuring end-of-life panels are recovered, reused and recycled. Local infrastructure that can handle this equipment will be essential as the scheme develops.
ReSolve Global has established a 2,000-square-metre holding and sorting facility where used solar panels are collected, recorded, assessed and sorted.  It keeps used solar panels and other renewable-energy equipment out of landfill and recovers valuable materials for reuse and recycling.
“Solar has delivered enormous benefits for Australian homes and businesses, but we also need to take responsibility for the equipment coming off rooftops. Our goal is to build a transparent and practical system that prioritises reuse wherever appropriate and ensures the remaining materials are responsibly recovered.” Said Ben Pietzsch, Director of ReSolve Global.
To support the operation, Sungrow has sponsored a 20kWh SBH battery and 10kW SH10RS inverter, allowing the facility to run on clean, self-generated energy. The Sungrow SBH system pairs a hybrid energy storage solution with intelligent energy management, allowing the facility to store surplus solar generation and use it when needed. Combined with a Sungrow single-phase inverter, the system converts solar energy into reliable power for the facility’s daily operations, including equipment, lighting, and administration. This reduces reliance on grid electricity, lowers operating costs, and cuts emissions associated with the recycling process.
For Sungrow, supporting ReSolve is about closing the loop on the clean energy transition. A facility dedicated to recovering solar equipment should itself run on solar, demonstrating the circular, low-carbon model the industry is working towards.
“Solar has transformed how Australian homes and businesses generate power, and it’s our responsibility as an industry to make sure that equipment is managed well at the end of its life. ReSolve is doing exactly that, and we’re proud to support them. By powering their Tyagarah facility with a Sungrow SBH system and inverter, we’re helping ReSolve practise what it preaches: a recycling operation running on clean energy. It’s a meaningful step towards a truly circular solar industry, and we hope it inspires other businesses to follow.” said Richard Chen, C&I Business Development Manager of Sungrow.
The sponsorship reflects a shared commitment to sustainability. Sungrow contributes proven technology and more than two decades of expertise in PV and energy storage, while ReSolve brings local knowledge, hands-on recovery capability and a clear vision for reuse. Together, this demonstrates how manufacturers and recovery specialists can work side by side to support the full life cycle of solar.
“The Northern Rivers has long been a place where people are prepared to think differently about sustainability and resource use. It is fantastic to see that innovation happening locally and creating the potential for new skills, jobs and circular-economy opportunities in our region.” Tamara Smith MP of Ballina.
Looking ahead, Sungrow will continue to support ReSolve as it grows and to work with the wider industry to advance sustainable end-of-life solutions.
 

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Solar Energy Corporation of India (SECI) and Odisha Hydro Power Corporation Limited (OHPC) have signed a Binding Term Sheet to jointly develop large-scale floating solar photovoltaic (PV) projects integrated with battery energy storage systems (BESS) across reservoirs in Odisha. The projects will be developed through a 50:50 joint venture, with power offtake envisaged through GRIDCO.
The two sides are targeting about 3 GW of renewable energy capacity under capital expenditure (CAPEX) mode by 2030. Odisha has an estimated floating solar potential of around 12 GW, and the partnership aims to harness the state’s reservoir resources.
Signing
The term sheet was signed by Sivakumar V Vepakomma, Director (Power Systems), SECI, and Amiya Kumar Mohanty, Director (Operations), OHPC. It was signed in the presence of Odisha Chief Minister Mohan Charan Majhi and Deputy Chief Minister Kanak Vardhan Singh Deo. Akash Tripathi, Managing Director, SECI, and Vishal Kumar Dev, Additional Chief Secretary, Energy Department, Government of Odisha, were also present.
Strategic fit
The initiative is also a milestone towards SECI’s target of adding 10 GW of its own project capacity by 2030, which it said will strengthen its role in developing and owning large-scale renewable energy assets.
The collaboration will combine floating solar with battery storage to supply reliable, clean and dispatchable green power, particularly during peak demand hours. It is also meant to strengthen Odisha’s energy security.
Investment proposals
At the summit, held at Bharat Mandapam in New Delhi, Odisha secured prospective investment proposals worth about Rs 1,17,557 crore through 18 memorandums of understanding (MoUs). These represent a tentative capacity addition of around 11,742 MW. The proposals span pumped storage, solar, wind, hybrid renewable energy, battery storage, green hydrogen, green data centres and other emerging technologies.
Bondada Engineering Limited has received sanction for a term loan from Canara Bank to finance the debt component of its Battery Energy Storage System (BESS) project with Tamil Nadu Green Energy Corporation Limited (TNGECL), the company announced in a regulatory filing. The sanction marks the company’s entry into large-scale, bank-funded infrastructure financing and represents a…
Read More Bondada Engineering secures first major bank-funded term loan for BESS project
Kanohar Electricals Limited more than doubled its revenue from operations to Rs 137 crore in the first quarter of FY27, as higher manufacturing volumes and a stronger contribution from 400 kV transformers drove a sharp improvement in financial performance. Revenue for the quarter ended June 30, 2026, rose 103.5% from Rs 67 crore in Q1…
Read More Kanohar Electricals Q1 revenue more than doubles to Rs 137 crore
India has launched the Indian Carbon Market Portal, marking a formal step toward operationalising its domestic carbon trading framework under the Energy Conservation (Amendment) Act. The platform was unveiled on March 21, 2026 by Union Power Minister Manohar Lal at the International Conference on Carbon Markets, Prakriti 2026 in New Delhi. The launch was also…
Read More India launches carbon market portal; trading to begin within four months
Exide Energy Solutions Limited (EESL), a material subsidiary of Exide Industries Limited, has commissioned Phase I of its lithium-ion cell manufacturing facility at Devanahalli, Bengaluru, Karnataka. The 6 GWh facility was commissioned on 23 September 2026. The facility has been established to manufacture advanced lithium-ion cells across multiple chemistries and form factors. EESL is developing…
Read More Exide Energy commissions Phase-I of 6 GWh cell plant in Bengaluru
Tata Power Renewable Energy Limited (TPREL), a subsidiary of The Tata Power Company Limited, has commissioned a 190.5 MW Solar Firm and Dispatchable Renewable Energy (FDRE) project at Kalasar in Bikaner, Rajasthan. The project is part of the larger 460 MW FDRE capacity contracted under the SJVN FDRE Tranche-1 initiative. Energy storage The project integrates…
Read More Tata Power Renewable commissions 190.5 MW FDRE project in Rajasthan
Rajesh Power Services Limited has received a Letter of Intent (LoI) from Gujarat Urja Vikas Nigam Limited (GUVNL) for developing a 65 MW / 130 MWh standalone Battery Energy Storage System (BESS) facility at Virpore in Gujarat. The company informed the stock exchanges about the award on January 5, 2026. The project forms part of…
Read More Rajesh Power gets LoI for 65 MW / 130 MWh BESS project in Gujarat
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Saatvik Solar Industries Private Limited, a wholly owned subsidiary of Saatvik Green Energy Limited, has commenced commercial production of solar photovoltaic (PV) modules at its manufacturing facility in Gopalpur Industrial Park, Ganjam district, Odisha. Production at the facility has commenced under Phase I, which has an installed capacity of approximately 1.3 GW. 
Furthermore, the facility is being developed as part of the company’s initial public offering objectives, with the prospectus dated September 23, 2025, outlining plans for a 4 GW solar PV module manufacturing unit. The remaining capacity is scheduled to be commissioned in subsequent phases.
Earlier, in May 2026, Saatvik Green Energy Limited secured an order worth Rs 1.71 billion for the supply of solar modules for a utility-scale solar project for a domestic independent power producer. Saatvik will supply TOPCon bifacial glass-glass solar photovoltaic modules as part of the order. 
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Ground is broken on a 2,200-acre solar farm being constructed in far southeast Arkansas. The 250-megawatt Cypress Knee Solar energy project in Chicot County is the product of EDP Renewables North America.
EDP has a long-term power purchase agreement with Meta and is expected to be completed by 2028 and generate approximately $25 million in new revenue for Chicot County over its lifetime.
“Breaking ground at Cypress Knee Solar marks an important milestone for the project and for Arkansas’ growing role in America’s energy future,” said Sandhya Ganapathy, CEO of EDP Renewables North America. “As energy demand continues to rise, projects like Cypress Knee Solar help strengthen grid reliability while creating jobs, generating meaningful local revenue, and delivering long-term benefits to the communities that host them. We are proud to partner with Meta and local stakeholders to advance new energy infrastructure that supports economic growth and American energy independence.”
The project supports Meta’s commitment to matching 100% of its annual electricity use with clean and renewable energy generation.

At peak construction, the project is expected to support several hundred jobs, providing opportunities for local workers, contractors, and suppliers. Once operational, Cypress Knee Solar will contribute substantial tax revenue that can help fund schools, infrastructure improvements, emergency services, and other community priorities throughout Chicot County.
EDPR NA has also invested in local community initiatives during the project’s development, contributing more than $77,000 to organizations and programs in Chicot County, including support for the restoration of the Lakeside High School greenhouse, resources for the Lakeside Robotics team, and funding for the Lake Village food pantry.
About EDP Renewables North America  
EDP Renewables North America LLC, its affiliates, and its subsidiaries develop, construct, own, and operate wind farms, solar parks, and energy storage systems throughout North America. Headquartered in Houston, Texas, with 61 wind farms, 29 solar parks, four energy storage sites, and eight regional offices across North America, EDPR NA has 1,000 employees and also has developed more than 12,900 megawatts (MW) and operates more than 12,300 MW of onshore utility-scale renewable energy projects.
Jerry Bohnen is the founder and creator of OK Energy Today, which began in 2012. He is an Edward R. Murrow Investigative award winner and has been recognized by other national, regional and state institutions during his 50 years as a broadcast journalist. Contact Jerry at editor@okenergytoday.com
OK Energy Today is a news media publication committed to timely, accurate reporting on Oklahoma energy.
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SMA Solar stock traded at EUR 53.10 on Lang & Schwarz at 08:15 CET on Wednesday, November 4, 2026, 4.12 percent above the Xetra close of Tuesday, November 3, 2026.
SMA Solar Technology focuses on photovoltaic system technology and supports the shift toward decentralized, digital and renewable energy supply. Its solutions cover private homes, commercial customers and photovoltaic professionals.
The next scheduled company event is the publication of the January-to-September 2026 quarterly statement and an analyst conference call on Thursday, November 12, 2026. That release will give investors the next regular update on demand, project activity and the progression of the 2026 financial year.
SMA’s investor-relations page highlights the 2025 annual report, the first-half 2026 financial report and the analyst presentation on the half-year results. The company says it operates in 20 countries with more than 4,000 employees. Further company information is available from SMA Solar investor relations.
Investors can follow the real-time quote of SMA Solar stock during the trading session.
The DAX provides the broader market backdrop for German equities.
More news and analyses on SMA Solar stock.

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Beginning in November, OUC estimates about 50% of customers will see their bills decrease, about 30% will see an increase of up to $3 per month, and the remaining customers could pay an average of $7 more per month.
Nearly 250,000 Orlando Utilities Commission customers will be impacted by the public power company’s PeakShift rate program on their electric bills.
The plan, which was approved by the OUC Board in December of 2024, aims to encourage its customers to shift their electric consumption habits to off-peak hours, while reducing the buy-back rates to residential solar users on the OUC grid.
The new rate plan will lower the hourly kilowatt rate residents pay by one cent while placing the resident into one of three payment tiers that add monthly flat fees of $5, $10, or $15 based on the customer’s peak 15 minutes of usage from the previous month.
Jenise Osani, vice president of customer experience and sales for OUC, says the purpose of the program is to spread the power demand across the clock more evenly, lowering rates for all OUC users.
“We’re asking customers to stagger, not stack, when they’re using energy,” Osani said. “If a customer can say wash their dishes at a different time than they run their dryer or their washer or perhaps take a heated shower, if they can stagger those times and are increasing the actual demand at a single moment, they will fall into a lower tier which will help them keep their rates lower.”
Osani says the program is not generating additional revenue for OUC, rather it’s just charging customers differently.
When OUC proposed the PeakShift program in 2024, it was met with criticism that it was a surge pricing program that would charge users more during collective peak periods such as August when people maximize their air conditioning use. Advocates for low-income communities argue that variable rate structures disproportionately impact residents living on the economic margins.
“The way that I understand it is they just want to be able to charge more when people use electricity when they most need it which is ridiculous. I mean we should be able to use electricity when we need it,” said Orlando city commissioner Patty Sheehan.
Commissioner Sheehan has been vocal in her opposition to OUC’s PeakShift program since it was proposed two years ago. She says she can see who will be impacted by the rate change simply by driving through the communities in her district.
“A lot of people have these terrible window units,” she said. “They’re usually in rentals and so those are the people that can least afford to deal with an uptick in power.”
Heaven Campbell is senior Florida program director for Solar United Neighbors, a non-profit advocating for expanded and equitable solar energy access. Campbell understands the need to spread the electricity demand across the day, but feels OUC’s PeakShift is the wrong approach.
“All of the research on any onerous programs, especially for our necessary services like utilities, the most vulnerable are going to be the most impacted. So that’s your non-native English speakers, your income constrained,” she said.
Osani said OUC’s analysis found that many low-income customers would pay the same or less under the PeakShift plan, which she said would also help stabilize bills from month to month.
Changes to solar power
When homeowners install rooftop solar, they can send excess electricity back to the grid. OUC credits them for that power.
Another leg of the PeakShift program is the TruNet Solar plan, which reduces the price at which OUC buys back excess energy from residential solar owners from about 11 cents per kilowatt hour to around 4 cents. Homeowners that filed applications before June 30, 2025, will still receive the 11-cent rate, but those who didn’t and new solar owners will get the reduced rate.
This rate shift has faced criticism as energy buyback programs are a popular selling point for the solar industry.
Osani acknowledged that lowering the credit homeowners receive for excess rooftop solar power could make solar systems harder to sell. She said customers can still save by using the electricity their panels generate and storing excess power in batteries for later use. Osani says OUC was previously crediting some customers at the full retail electricity rate, which is more expensive than what OUC pays for utility-scale solar.
Raymer Maguire, vice president of campaigns with the CLEO Institute, a Miami-based climate advocacy 501(c)(3), raises concerns that reducing the buyback rates could disincentivize homeowners from investing in solar panels.
“If we want to lower electricity costs for OUC customers and Orlando residents in the long term, the faster we can speed up this transition away from fossil fuels which require fuel costs, towards renewables which don’t have a fuel cost, is really important to achieve affordability,” Maguire said.
Orlando city commissioner Sheehan, a solar panel owner herself, feels OUC is shortchanging residential solar power owners who shoulder the overhead of energy generation themselves.
November will be the first month OUC customers may see a change in their billing

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Italy Connects 1.74 GW of Solar in Third Quarter, Up 37%  energynews.pro
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Solar stocks are rallying after Democrats won control of both chambers of Congress in the November 3 elections, while one name is bucking the trend. First Solar (NASDAQ:FSLR | FSLR Price Prediction) stock is at $202.09, up 9% in early…
Market Movers desk. Editor: David Moadel.

Solar stocks are rallying after Democrats won control of both chambers of Congress in the November 3 elections, while one name is bucking the trend. First Solar (NASDAQ:FSLR | FSLR Price Prediction) stock is at $202.09, up 9% in early trading. Even after that jump, First Solar stock is down 23% year to date (YTD), so the move is a rebound from low levels.
Checking on the peers, Enphase Energy (NASDAQ:ENPH) stock is at $33.16, up 9%. Sunrun (NASDAQ:RUN) stock is at $9.35, up 8%. That gain still leaves Sunrun stock down 49% YTD. Moreover, SolarEdge Technologies (NASDAQ:SEDG) stock is at $30.22, down 8%.
Democrats could seek to restore incentives for new solar projects that the 2025 tax law curbed, a shift that could lift demand for First Solar’s panels. Under the federal advanced manufacturing production credit, eligible components include solar modules and photovoltaic cells, the products First Solar builds in its U.S. plants. Per Benzinga, on the company’s October 29 earnings call, CFO Alexander Bradley said “the forecast is about $2.1 billion of credit to be generated this year.”
The hurdle for First Solar and its peers is the president’s veto. Kalshi traders put the probability that Congress overrides at least one presidential veto before January 1, 2028, at 28%. That contract covers any veto, including those on non-energy bills.
Recent reports indicated a minimum price of 38 cents per watt on covered imported solar panels and an added 15% duty on many covered imports take effect December 4. Those measures favor domestic makers such as First Solar. CEO Mark Widmar asserted on the call that First Solar is “the only fully integrated utility-scale solar manufacturer without dependency on a Chinese crystalline silicon supply chain.” Management flagged uncertainty around minimum import prices and anti-stocking enforcement, and Widmar warned that “the price discovery is going to take a while before you’ll start to see that volume being executed.”
First Solar disclosed on October 29 that it lowered its annual sales forecast to $4.6 billion to $4.9 billion, from $4.9 billion to $5.2 billion. Alongside that cut, First Solar’s board authorized a $500 million share repurchase program. Mizuho raised its First Solar price target to $328 from $324 on November 4 and kept its Outperform rating.
SolarEdge released its Q3 2026 results before the open on November 4, and the stock slid on weak Q4 2026 guidance despite an earnings-per-share beat. The stock had initially traded higher with the rest of the group, so the results changed its direction. Management said the quarter included a one-time benefit tied to International Emergency Economic Powers Act (IEEPA) tariff matters, and that SolarEdge’s gross margin was significantly lower without it.
CEO Shuki Nir stated, “As near-term market uncertainty persists and given reduced revenue expectations for the fourth quarter, we are taking decisive steps to reduce costs, sharpen our focus, and support profitability amid softer demand.” On the call, SolarEdge pointed to soft U.S. residential demand, higher interest rates and possible changes to Germany’s renewable policy.
First Solar makes thin-film cadmium telluride modules for utility-scale power plants, and its manufacturing base is centered in the U.S. That model ties First Solar to developers, utilities and federal manufacturing credits.
Enphase sells microinverters and home batteries, so its business tracks U.S. residential tax policy closely. Higher interest rates and the expiration of the Section 25D federal tax credit have weighed on Enphase demand, according to chief executive Badri Kothandaraman. Chief Products Officer Raghuveer Belur noted on the October 27 call that “there is a broad view that the election results may help renewables in general.”
SolarEdge builds inverters and power optimizers for homes and businesses, with heavy exposure to Europe as well as the U.S. Sunrun, the largest U.S. residential solar installer, sells subscriptions to homeowners and shares Enphase’s sensitivity to tax policy and borrowing costs.
The next test for First Solar is whether the incoming Congress moves to restore incentives for new solar projects or merely slows down further cuts. Gains across the group could fade if support means fewer rollbacks and no new incentives. Backing the other side, First Solar held a contracted backlog of 44 gigawatts as of September 30, and the coming import price floor favors its domestic plants.
Watch for any early bill touching the 2025 tax law’s solar provisions, since it could show how far Democrats intend to push and whether a veto stands in the way. Volatility across solar names could stay elevated until the fight over solar tax credits resolves.
Contact [email protected] for any questions or corrections.
David Moadel is financial writer specializing in stocks, ETFs, options, precious metals, and Bitcoin. David has written well over 1,000 articles for leading online publications, helping investors understand markets, income strategies, and risk.His work has appeared in The Motley Fool, InvestorPlace, U.S. News & World Report, TipRanks, ValueWalk, Benzinga, Market Realist, TalkMarkets, Finmasters, 24/7 Wall St., and others.With a master’s degree in education, David has taught at the elementary, high school, and college levels. That teaching background shapes his writing style: clear, educational, and practical. David has also built a loyal social-media audience by providing trustworthy financial content on YouTube, X/Twitter, and StockTwits.
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SunLib offers local authorities a solar subscription with no upfront investment or loan  energynews.pro
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PETALING JAYA: RedPlanet Bhd’s wholly-owned subsidiary, AZTI Systems Sdn Bhd, has received a RM7.09mil purchase order for a 15 megawatts alternating current (MWac) large-scale solar photovoltaic plant in Batu Sapi, Sandakan, Sabah.
The order, from a Malaysian-incorporated company, covers supervisory control and data acquisition and system integration engineering design. It also includes the supply of electrical, control, automation and digital systems equipment.
In a statement, managing director Lian Wah Seng said the order allows the enterprise information, communication and technology solutions provider to apply its engineering and systems integration capabilities to a large-scale solar plant. He added that the group would coordinate closely with the awarder to deliver the agreed scope.
The order is expected to run for six months, with the start date to be mutually agreed. RedPlanet plans to fund hardware purchases, including inverters, remote terminal equipment and cables, through initial public offering proceeds, bank borrowings and/or internally generated funds.
…

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Avaada Electro Gets 7.117 GW of TOPCon Solar Cell Capacity Enlisted on ALMM  energynews.pro
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Renewable energy microgrid specialist Canopy Power Australia announced it has partnered with Floating Solutions Consulting (FSC) to advance its plan to deploy next-generation floating solar technology in Australia.
Canopy Power Australia Managing Director Mahasti Motazedi said the partnership with FSC will pair Canopy Power’s experience in delivering solar microgrid and battery energy storage solutions with FSC’s maritime engineering expertise.
“Floating solar needs two kinds of excellence: marine engineering to keep it on the water, and renewable energy engineering to make it perform,” he said. “Together with Floating Solutions Consulting, we bring both, so our clients get a best-in-class solution and a project delivered with confidence.”
Motazedi said the collaboration will support delivery of more than 50 MW of floating solar infrastructure over the next 36 months.
“We’re not building large utility-scale solar farms. Our focus is custom floating solar microgrids for commercial and industrial (C&I) clients,” he said, adding that the company’s pipeline of projects is already well “advanced in Victoria and growing in New South Wales (NSW), and we’re looking at other states as demand builds.”
“Over the next three years, we plan to deploy 10-plus projects across Australia, representing around 50 MWp of installed capacity,” Motazedi said. “We’re targeting construction of our first Australian project in the second half 2027.”
The projects will feature Norwegian floating PV specialist Ocean Sun’s patented technology that consists of modified silicon solar modules installed on a circular hydro-elastic floating membrane measuring 70-metres in diameter.
The membrane is only 1 mm thick that Ocean Sun said allows the solar panels to be in direct thermal contact with the water. The company said this contributes significantly to heat dissipation, which in turn “delivers up to 10% higher yield compared to both ground-mounted and pontoon-based floating PV systems.”
Each membrane offers 700 kWp of PV generation capacity and multiple floating rings can be deployed to provide the desired solar capacity. Ocean Sun said the structures are built to withstand harsh conditions and the system is certified to withstand winds up to 275 km/h. The floating rings are also fitted with pumps that allow rainwater to be harvested.
Canopy Power will design and deploy the floating solar technology as a microgrid solution, and integrate other energy assets such as battery storage, rooftop or ground mounted solar PV and wind energy when needed.
Motazedi said the technology has already attracted widespread interest, adding that floating solar presents a compelling opportunity to expand renewable energy generation while minimising land usage and addressing issues such as water scarcity and quality.
“Few solutions deliver water preservation and clean energy together,” he said. “We’re seeing strong interest in this new generation of floating solar, particularly from water utilities and agricultural operators with ponds, reservoirs, and small lakes.”
“The system reduces evaporation by up to 50% and limits algae growth, while generating electricity on water rather than land. Its full surface also captures rainwater, around 2 million litres per year at a typical site, which many of our clients find valuable.”
Target markets include water utilities, data centres, and mining and agriculture operations. Canopy Power said the partnership is also bringing floating charging stations to Australian waters, so electric ferries, workboats and other electric vessels can charge on the water.

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Published 4th November, 2026 by
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It contains a digest of global news, events, and statistics as well as more detailed technical articles, company and country profiles, conference reports and regular regional economic briefings.
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Solar Power World
By Billy Ludt | November 4, 2026
EDP Renewables North America broke ground on Cypress Knee Solar, a 250-MW solar energy project in Chicot County, Arkansas. The project is supported by a long-term power purchase agreement with Facebook parent company Meta.
Credit: EDP Renewables North America
Cypress Knee Solar is expected to be completed by 2028.
“Breaking ground at Cypress Knee Solar marks an important milestone for the project and for Arkansas’ growing role in America’s energy future,” said Sandhya Ganapathy, CEO of EDP Renewables North America. “As energy demand continues to rise, projects like Cypress Knee Solar help strengthen grid reliability while creating jobs, generating meaningful local revenue and delivering long-term benefits to the communities that host them. We are proud to partner with Meta and local stakeholders to advance new energy infrastructure that supports economic growth and American energy independence.”
At peak construction, the project is reportedly expected to support several hundred jobs. Once operational, Cypress Knee Solar is expected to contribute $25 million in tax revenue to Chicot County, which can help fund schools, infrastructure improvements, emergency services and other community priorities.
EDPR NA also contributing more than $77,000 to organizations and programs in Chicot County, including support for the restoration of the Lakeside High School greenhouse, resources for the Lakeside Robotics team and funding for the Lake Village food pantry.
News item from EDP Renewables North America
Billy Ludt is managing editor of Solar Power World and currently covers topics on mounting, inverters, installation and operations.

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On 17 October 2026, JinkoSolar introduced its new TAC technology and Tiger Neo 5.0 residential module, delivering up to 510W at 25.52% efficiency.
The key point, however, is not only the performance. It is the architecture behind the technology.
TAC combines HJT passivation in the P-region, TOPCon passivation in the N-region, and a front-side metal-free structure with electrical contacts placed on the rear. The first two are passivation methods; the third defines the cell architecture.
This means TAC can be described as a hybrid technology in terms of passivation, but structurally it is still a back-contact, or BC, technology.As long as both electrical contacts are positioned on the rear and the front surface remains free from metal shading, the cell follows a BC architecture.

The significance of TAC is therefore broader than one product launch.
JinkoSolar has long been associated with TOPCon technology, yet its next-generation platform now incorporates a BC structure. This shows that TOPCon and HJT can be used within BC architecture rather than being separate alternatives to it.
The same direction is visible across the industry. LONGi has HPBC and HIBC, AIKO has ABC, Trina Solar has THBC, JA Solar has HBC, Tongwei has TBC, and JinkoSolar has now introduced TAC.

LONGi moved early in this direction, mass-producing BC products since 2022 and building more than 630 BC-related patents. In H1 2026, LONGi’s BC module shipments reached 19.55GW, accounting for more than 65% of its total module shipments.
TAC should therefore not be seen as a technology separate from BC.
It is another BC technology, with a different passivation approach, but the same fundamental rear-contact architecture.

The names may differ, but the industry direction is becoming increasingly clear.

The Friday Times is Pakistan’s first independent weekly, founded in 1989.TFT offers a diverse range of perspectives on national and international issues.
Copyright ©2026 The Friday Times. All Rights Reserved.

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Harnessing your power: A new guide on solar for ranger stations  Panda.org
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ISMA's roadmap targets 2,275 GW of installed solar capacity by 2047, supported by integrated manufacturing of polysilicon, ingots, wafers, cells and modules.
November 04, 2026. By News Bureau
Indian Solar Manufacturers Association (ISMA) has published a report that highlights how India could transform its solar manufacturing industry into a fully integrated global powerhouse by 2047, creating 32.3 lakh direct and indirect jobs, attracting USD 89 billion in manufacturing investments and eliminating its solar import bill.
Titled Vision 2047: Solar Manufacturing from Polysilicon to Power Plant, the report presents a pathway for India to move beyond module assembly and establish manufacturing capabilities across the entire solar value chain—from polysilicon and ingots to wafers, cells and modules. The transition could enable India to retain a significantly larger share of the value generated by every solar panel manufactured domestically while strengthening its position in global markets.
Under the Vision 2047 pathway, India’s installed solar capacity could reach 2,275 GW by 2047, supported by manufacturing capacities of 3,266 GW in modules, 2,796 GW in cells, 2,479 GW in ingots and wafers, and 2,156 GW equivalent in polysilicon. The report estimates that the entire manufacturing chain could meet domestic demand within the next decade, with every stage progressively scaling up to support India’s growing solar installations and exports.
The expansion could create a significant employment opportunity, with total manufacturing-related jobs rising from approximately 4.1 lakh currently to 8.1 lakh by 2030 and 32.3 lakh by 2047. Direct employment within solar PV manufacturing plants could increase from around 1.4 lakh to 11.1 lakh. Notably, nearly 68 percent of direct manufacturing jobs could be concentrated in upstream segments such as cells, wafers and polysilicon by 2047, reflecting the growing importance of deeper domestic manufacturing capabilities.
The report estimates that approximately USD 89 billion in new solar PV manufacturing investments could be required by 2047 under the Vision pathway, translating into an average investment requirement of around USD 4.3 billion annually between 2027 and 2047. Nearly 70 percent of these investments are expected to flow into polysilicon, wafers and cells. The Production Linked Incentive (PLI) scheme has already attracted approximately USD 8.4 billion in investments by June 2026, with every dollar of incentive drawing around four dollars in private investment.
A deeper domestic manufacturing ecosystem could also substantially reduce India’s dependence on imported solar components. The report projects that the country’s annual solar import bill could decline from approximately USD 4.4 billion currently to zero by 2041 under the Vision 2047 pathway. India could further account for 26.5 percent of global solar module supply by 2047, compared with around 5.9 percent under the current policy scenario by 2030.
Amit Manohar, Secretary General, ISMA, said, “India’s solar manufacturing sector stands at a pivotal moment, with the Vision 2047 pathway presenting an unprecedented opportunity to build a globally competitive, integrated manufacturing ecosystem. The potential to attract USD 89 billion in investments, generate over 32 lakh jobs and significantly reduce import dependence underscores the strategic importance of strengthening domestic manufacturing across the entire solar value chain. Realising this ambition will require sustained policy support, a predictable demand pipeline, investments in upstream manufacturing and continued efforts to strengthen India’s global competitiveness.”
The report identifies policy certainty, sustained domestic demand and timely implementation of manufacturing programmes as critical to realising this ambition. It calls for maintaining firm timelines under the Approved List of Models and Manufacturers (ALMM), completing PLI-supported projects, expanding rooftop solar and agricultural solarisation programmes and accelerating investments in upstream manufacturing. It also highlights the need to develop domestic manufacturing equipment, strengthen technical skills, promote advanced cell technologies, establish recycling frameworks and expand export markets.
The Vision 2047 pathway outlines a phased transition, with cells scaling up through 2030, wafer manufacturing expanding through 2035 and the complete solar manufacturing value chain becoming established thereafter. This could position India not merely as a major solar deployment market, but as a trusted global supplier of solar manufacturing products and technologies.

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Plans to build a 126-acre (50 hectare) solar farm in North Yorkshire are to be reconsidered after a High Court judge quashed a previous decision to grant permission.
The Woolpots scheme, near the village of Husthwaite, was approved on appeal in October 2025, after being refused by North Yorkshire Council.
This was then overturned in August following a legal challenge from resident Philip Hewitson, who argued that the plan did not properly consider the impact on the landscape.
The Planning Inspectorate has now said the appeal will be reconsidered, with a hearing set for 25 November.
The scheme, proposed by Woolpots Solar Farm Ltd, includes solar panels capable of exporting around 32MW of electricity.
It would also incorporate a battery energy storage facility (BESS) with a capacity of 37MWh, comprising up to 32 battery containers and associated infrastructure, according to the Local Democracy Reporting Service.
The council initially refused permission over concerns about the impact on the surrounding landscape, views from the Howardian Hills and the loss of high-quality agricultural land.
The High Court decision does not mean the solar farm must be refused permission, but requires the appeal to be determined again.
Opponents say around 70% of the proposed development site comprises the best and most versatile agricultural land.
Husthwaite parish councillor Sarah Aspinall said there was growing concern about the concentration of solar developments across the wider Hambleton area.
She said: "There has also been a steady increase in the number of pending and approved solar and battery storage applications in the wider Hambleton area, with many concerned – both within and outside our parish – about cumulative impact and industrialisation of the countryside."
The applicant has not responded to requests from the Local Democracy Reporting Service to comment on the scheme.
Listen to highlights from North Yorkshire on BBC Sounds, catch up with the latest episode of Look North.
Neighbouring councils are aiming to generate energy and money by running their own solar farms.
People spilled out of the hall in Norfolk, trying to follow proceedings.
The company behind the solar farm said it would provide electricity for more than 140,000 homes.
Councillors said the government's national framework left them with no choice but to allow the farm.
The project in Goole is part of a council scheme to help tenants reduce energy costs.
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PLATFORM REVIEW | Jilin No 2 – Chinese-built floating solar power structure utilises bamboo-based composite construction  Baird Maritime
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One planned data center in Saline Township could require 1,383 megawatts of power around the clock.
Photo Credit: iStock
As Michigan has made efforts to meet both growing electricity demand and aggressive renewable energy targets, land-use debates have grown increasingly contentious, particularly in rural parts of the state.
In the coming years, large-scale commercial solar arrays will likely become a common sight in Michigan. For example, Ranger Power received Michigan Public Service Commission approval for its 90-megawatt Acceleration Solar project in southern Ingham County, according to MITechNews. Construction was scheduled to start in 2027, with commercial operation beginning in 2028.
The project was the first to be authorized under the 2023 law known as Public Act 233, which allowed state-level siting of large renewable-energy projects under certain circumstances. Michigan has set the goal of generating 50% of its electricity from renewable sources by 2030 and 60% by 2035, per MITechNews. 
Meanwhile, massive, energy-intensive data centers have also been making their way to Michigan, causing electricity demand to soar. One planned data center in Saline Township could require 1,383 megawatts of power around the clock, roughly 15 times the amount that the Acceleration Solar project will generate. 
For homeowners, going solar remains one of the best ways to save money on home energy. Solar leases can deliver hundreds of dollars in monthly savings without upfront costs. EasyHome‘s free explorer tool can help you see potential savings from vetted installers in your area.
In order to meet its renewable energy targets amid rapidly increasing demand, Michigan will need to install a great deal of solar capacity, which requires land. According to the Michigan Department of Natural Resources, as reported by MITechNews, the combined solar capacity envisioned by DTE and Consumers Energy could reach 23,400 megawatts by 2040.
Based on an estimate of five to 10 acres for each megawatt, the Michigan Department of Natural Resources puts the potential footprint at 117,000 to 234,000 acres. While this might sound like a lot of land, even the upper range of the estimate amounts to less than 3% of Michigan’s roughly 10 million agricultural acres, per MITechNews. 
Because projects depend on suitable land and access to transmission infrastructure, these solar arrays could end up concentrated in certain areas, with potentially hundreds or thousands of acres within a single township being transformed. Concerns about losing local control over such changes have fueled much of the opposition to PA 233.
With energy prices through the roof, there’s never been a better time to go solar — and EasyHome can help you find the best prices from the best installers in your area.
EasyHome takes the guesswork and headaches out of energy upgrades by showing you estimated savings from a network of vetted local partners. To get started, just enter your ZIP and share a few details about your home — seeing your estimate is really that easy.
However, as arguments over solar panels versus farmland have heated up, an unlikely ally has appeared: sheep.
A growing number of studies and test projects have shown that allowing sheep to graze around solar panels can be mutually beneficial. Additionally, going solar could represent an additional source of income for farmers and other landowners.
Agrivoltaics — the practice of combining farming and solar generation on the same property — has already been underway in Michigan. According to Michigan State University, sheep have been grazing more than 400 acres of the state’s solar installations. Rather than relying entirely on mowing to clear grass and other vegetation around solar panels, operators can pay farmers to manage vegetation with their flocks.
Grazing could lower costs and emissions, according to the Michigan Department of Natural Resources, as reported by MITechNews. Making the system work, however, required planning for appropriate fencing, water, and vegetation from the outset.
Michigan State University estimated that the state’s existing sheep industry could potentially support grazing across 7,200 to 22,000 acres at solar sites, according to MITechNews. Farmers could help maintain the properties while continuing to produce an agricultural product.
Whether on a household or community scale, battery storage allows owners to maximize the benefits of solar power while also making sure that they have access to electricity when they need it most. EasyHome can help homeowners explore backup battery storage options. Pairing solar with a battery allows homeowners to maximize savings and power their property with solar energy when the grid goes down.
Michigan’s push for more solar power amid data center expansion is part of the debate about electricity costs and the future of farmland. 
• Pennsylvania and Texas have been telling AI data centers to bring their own power.
• Michigan’s Ypsilanti Township imposed a six-month power moratorium to stall a proposed data center.
• Growing AI data center demand could push electric bills higher as America’s power grid strains.
• Aligned lined up $500 million for solar and storage as U.S. electricity demand rises.
• Maryland’s Cecil County weighed 21 solar projects on 651 acres of farmland.
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Off-road autonomy developer Mach has introduced a commercial solar mowing solution tailored for independent power producers (IPPs) and large utility-scale solar asset owners.  
Vegetation management consistently ranks among the most significant recurring operations and maintenance (O&M) expenses for ground-mounted solar arrays. Keeping grass managed beneath and between panel rows requires repetitive, labor-intensive scheduling across expansive, often remote geographic footprints. Mach’s newly announced system aims to alleviate this burden by bringing driverless capability directly to commercial mowing equipment via a factory-integrated approach.
“Utility-scale solar sites present one of the most demanding operational environments in off-road autonomy—narrow clearances, dense panel shadows, GPS-degraded zones, and zero tolerance for infrastructure strikes,” said Colin Hurd, CEO of Mach.
By partnering as a Tier-1 supplier to equipment original equipment manufacturers (OEMs), Mach’s technology integrates into existing drive-by-wire commercial platforms. According to the company, this allows equipment manufacturers to bypass lengthy in-house robotics development cycles while providing solar asset owners with trusted, dealer-supported machinery.
Mach’s platform incorporates several key technological layers designed specifically to handle the physical constraints of large-scale photovoltaic installations. Its factory-integrated architecture directly interfaces with commercial OEM drive-by-wire systems, enabling vehicle manufacturers to deploy autonomous mowers quickly without multi-year development overhead.
For precision navigation, the system combines Mach Perception, RTK-GNSS, and patented RadX phased-array radar to navigate reliably through dust, tall grass, and sun glare while actively detecting and avoiding tracker posts, guy wires, inverter pads, and hanging harnesses.
Furthermore, centralized fleet orchestration through Mach Ops enables a single remote operator to dispatch, monitor, and geofence multiple machines across nationwide portfolios. Maintenance is streamlined through dealer-supported serviceability, relying on established commercial platforms so that routine mechanical work, blades, and hydraulics are handled via existing nationwide dealer networks.
Mach will showcase its autonomous solar mowing platform at the upcoming RE+ 26 conference, running from November 16–19, 2026, at the Las Vegas Convention Center in the West Hall at Booth W16676.
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Tuesday, November 10, 2026
5:00 pm – 6:00 pm CET, Berlin, Paris, Madrid
The new issue of pv magazine Global is out now!
Available in print and digital – get your copy today!
Day 1 | Europe’s Solar and Storage Markets 2027: What works where?
Day 2 | Solar + Storage Co-location: Three markets, three business cases
Day 3 | Solar Quality: Which technical risks still need better answers?
Day 4 | Cybersecurity and Procurement: What can European solar projects source in 2027 and beyond?
Thursday, November 5, 2026
10:00 am – 11:00 pm CEST, Berlin, Paris, Madrid
Friday, November 13, 2026
10:00 am – 11:00 am CET, Berlin, Paris, Madrid
As a media partner of Genera 2026, pv magazine will organize and moderate a session in Spanish in Madrid, during International Electrification and Decarbonization Week.
Monday, November 23, 2026
11:00 am – 12:00 pm CEST, Berlin, Paris, Madrid

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New Jersey regulators are proposing to designate solar panels as both a universal waste and a Class D recyclable material.
Photo Credit: iStock
Six New Jersey sites can accept retired solar panels, but only one actually recycles them, leaving owners with limited options as the state works to implement a law requiring retired solar equipment to be recovered.
According to Resource Recycling, under the S3399 law, whoever owns, produces, distributes, or manufactures a piece of solar equipment is responsible for taking it back and recycling or refurbishing it once it reaches the end of its life. Then-Gov. Phil Murphy signed the measure on January 12.
New Jersey regulators are proposing to designate solar panels as both a universal waste and a Class D recyclable material, with those amendments now headed to legal review. The New Jersey Department of Environmental Protection is still completing its internal review of those changes.
Diane Gard, chief of the agency’s Bureau of Recycling and Hazardous Waste Management, said the public will get to weigh in once the amendments are published. From there, finalizing new rules usually takes about a year, and a heavy wave of comments could stretch that timeline even longer.
End-of-life responsibilities aside, going solar is one of the best ways to save money on home energy, and solar leases in particular can deliver hundreds of dollars in monthly savings without upfront costs — and could avoid disposal issues when the systems age. EasyHome‘s free explorer tool lets homeowners see potential savings from vetted installers in their area.
Gard identified Commercial Solar Panel Recycling, based in Phillipsburg, as New Jersey’s only authorized site that actually recycles panels, Resource Recycling reported. Four other locations send the panels they collect to the Phillipsburg facility, while the sixth uses an out-of-state facility it owns.
In 2025, those six sites together processed 107 tons of retired panels. However, no solar panel recycler in New Jersey has received a permit. Instead, the six sites operate under temporary authorizations while the rules are pending.
Warehouse storage and hazardous waste landfills are the remaining options for older panels classified as hazardous through toxicity characteristic leaching procedure testing, Gard said.
With energy prices through the roof, there’s never been a better time to go solar — and EasyHome can help you find the best prices from the best installers in your area.
EasyHome takes the guesswork and headaches out of energy upgrades by showing you estimated savings from a network of vetted local partners. To get started, just enter your ZIP and share a few details about your home — seeing your estimate is really that easy.
Class D recycling facilities with good compliance records can accept non-hazardous panels through the agency’s research, development, and demonstration framework, Resource Recycling reported. The same toxicity testing is required, and authorizations last one year.
Renewals are available for a maximum of five years, but adoption of final rules would end them sooner.
An assessment of statewide access to recycling facilities must be published in the New Jersey Register before the agency can begin solar-specific rulemaking. The initial authorizations date to 2024.
For homeowners planning a solar installation, EasyHome can also help you explore backup battery storage options alongside your solar choices. Pairing solar with a battery allows you to maximize savings and power your home with solar energy when the grid goes down.
New Jersey’s limited recycling options are part of a larger challenge: figuring out what to do with aging solar panels.
• Nearly 5 million retiring U.S. solar panels could become a strategic materials supply.
• U.S. solar recyclers recover valuable aluminum and silver, but low-silver panels threaten their business.
• Just 0.5% of a solar cell accounts for 47% of its recycling value.
• Aging wind turbines and solar panels are creating a growing e-waste problem for renewables.
• Australian researchers developed a 60-second screening method to identify solar panels suitable for reuse.
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Howard’s family operation, Texas Solar Sheep, grew into a business managing more than 8,000 animals and employing 26 people, according to reporting published in January 2025. His experience illustrates how solar grazing can help farmers gain access to agricultural land while offering solar operators an alternative way to manage vegetation. The approach is gaining attention across the United States, although its economic and environmental benefits depend on local conditions.
Large solar installations require substantial areas of land. Beneath and between the panels, grass and other vegetation continue to grow, creating an ongoing maintenance challenge for operators.
If left unmanaged, vegetation can interfere with access to equipment, complicate maintenance, and potentially create fire hazards when dry plant material accumulates. Traditionally, companies have relied on mowing equipment or other vegetation-control methods.
But there is another possibility: letting sheep do some of the work.
This practice, known as solar grazing, allows livestock to feed on vegetation growing within solar installations. It forms part of a broader agricultural approach called agrivoltaics, in which land is used simultaneously for solar energy production and agricultural activities.
Sheep are particularly well suited to many solar farms because they are relatively small, can move between panel supports, and generally graze without reaching the height of the solar modules.
Unlike cattle, which are heavier and may damage infrastructure, sheep can often move safely through appropriately designed solar installations. Their grazing also reduces the need for some mechanical vegetation management.
According to the American Solar Grazing Association (ASGA), Texas has become an important center for this activity. Its Texas Solar Shepherds initiative highlights ranchers who use photovoltaic installations as productive grazing land.
The association reports that more than 70,000 acres of solar sites in the state are being grazed by sheep. That represents approximately 28,300 hectares of land where renewable energy production and livestock farming can coexist.
For JR Howard, the opportunity emerged in 2021, when he and his family began contracting with solar companies to manage vegetation using their flock.
Howard founded Texas Solar Sheep, a business built around providing grazing services to solar operators. What began as a relatively small family enterprise expanded rapidly as more solar facilities sought alternative vegetation-management solutions.
By January 2025, the company was managing more than 8,000 sheep and employing 26 people, according to reporting by the Associated Press.
Rather than depending exclusively on access to conventional pastureland, Howard could use land within solar installations. This arrangement provided grazing opportunities while allowing energy companies to maintain their sites.
The business model differs from traditional livestock farming in an important way. Ranchers may receive payments from solar operators for maintaining vegetation, in addition to earning income from their livestock operations.
That does not mean solar grazing is automatically profitable. Transportation, fencing, water supplies, labor, animal health, and the design of solar facilities all influence operating costs.
For Howard, however, the growth demonstrated that commercial solar grazing could become a substantial agricultural activity rather than a small experimental project.
The scale of solar grazing becomes particularly clear at a large installation in Milam County, northeast of Austin.
In a January 2025 report, the Associated Press described an SB Energy solar project covering approximately 4,000 acres and having a generating capacity of 900 megawatts.
At the site, around 3,000 sheep were used to manage vegetation among the solar panels.
The animals graze grass and other suitable plants, reducing the amount of vegetation that must be removed by machinery. They can also reach some spaces around equipment that are difficult for larger mowing vehicles to access.
However, solar grazing does not necessarily eliminate mechanical mowing. Some plants remain too tall, woody, or otherwise unsuitable for sheep, while site designs can make certain areas inaccessible.
A combination of grazing and mowing is therefore common. The ASGA’s national survey found that approximately two-thirds of active solar graziers who responded were also responsible for vegetation-management activities beyond grazing.
Sheep can also provide an agricultural use for land that might otherwise be managed exclusively as an energy facility. This offers one way to address concerns about the expansion of solar infrastructure onto productive rural land.
Texas is not the only state experimenting with sheep beneath photovoltaic panels.
The American Solar Grazing Association’s 2024 national census, published in May 2025 in partnership with the National Renewable Energy Laboratory, documented approximately 113,050 sheep grazing 129,261 acres of solar sites across 506 installations in 30 states.
The findings showed that solar grazing was already taking place at both smaller photovoltaic facilities and large utility-scale solar farms.
Texas accounted for approximately 68,626 acres and 36,237 sheep in the census, making it one of the country’s largest concentrations of solar grazing activity.
The difference between this census figure and the more than 70,000 acres highlighted by the Texas Solar Shepherds initiative reflects figures reported in different publications and periods. Neither should be interpreted as an independently verified total for November 2026.
The national survey also identified several practical factors influencing the success of grazing operations:
These conditions help explain why grazing is more straightforward at some solar farms than others.
The potential environmental advantages are one reason solar grazing has attracted growing attention.
Replacing some fossil-fuel-powered mowing with grazing may reduce fuel consumption and associated emissions. Grazing can also help manage vegetation without relying entirely on mechanical equipment.
There may be additional benefits for soil management and plant communities, particularly when grazing intensity is carefully controlled.
However, these outcomes are not guaranteed. Excessive grazing can reduce vegetation cover, increase soil disturbance, and harm plant diversity. Livestock also require water, transportation, veterinary care, and infrastructure.
Researchers are still investigating the long-term effects of combining photovoltaic installations with grazing, including changes in soil health, animal productivity, biodiversity, and land management costs.
Well-designed systems may create complementary benefits, but their overall environmental performance must be evaluated against realistic alternatives.
For many American sheep producers, access to affordable pasture is a major challenge. Land competition, development pressures, and operating costs can make it difficult for smaller ranching businesses to expand.
Solar grazing offers a potential solution by opening access to land that remains vegetated beneath renewable energy installations.
The American Solar Grazing Association’s Texas Solar Shepherds project highlights several ranchers and businesses involved in this developing sector, including JR Howard of Texas Solar Sheep, Ely Valdez of Solar Farm Services, Reid Redden of Premier Solar Sheep, and the Hodges family.
The initiative emphasizes that solar sites can create new opportunities for agricultural businesses while continuing to produce electricity.
Yet long-term success will depend on fair contracts, reliable site access, appropriate infrastructure, and the ability of ranchers to maintain healthy and productive flocks.
Texas illustrates how two industries sometimes viewed as competitors for land can work together. Solar companies need to maintain vegetation, while sheep ranchers need places for their animals to graze.
By bringing those needs together, solar grazing offers a practical example of how renewable energy production and traditional agriculture can share the same landscape.

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PETALING JAYA: RedPlanet Bhd’s wholly-owned subsidiary, AZTI Systems Sdn Bhd, has received a RM7.09mil purchase order for a 15 megawatts alternating current (MWac) large-scale solar photovoltaic plant in Batu Sapi, Sandakan, Sabah.
The order, from a Malaysian-incorporated company, covers supervisory control and data acquisition and system integration engineering design. It also includes the supply of electrical, control, automation and digital systems equipment.
In a statement, managing director Lian Wah Seng said the order allows the enterprise information, communication and technology solutions provider to apply its engineering and systems integration capabilities to a large-scale solar plant. He added that the group would coordinate closely with the awarder to deliver the agreed scope.
The order is expected to run for six months, with the start date to be mutually agreed. RedPlanet plans to fund hardware purchases, including inverters, remote terminal equipment and cables, through initial public offering proceeds, bank borrowings and/or internally generated funds.
The order is expected to contribute positively to earnings per share and net assets per share over its duration.
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Germany underscores the critical role of renewable energy in fortifying energy security for India. During recent discussions, German Ambassador Jasper Wieck highlighted the necessity for India to domestically produce solar panels and batteries. The Bharat Renewable Energy Summit is instrumental in establishing partnerships between Indian and German firms for local production.
Renewable energy key to India’s energy security, German envoy says

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RenewSys India has secured a 1.2 GW supply order for solar PV encapsulants and backsheets from Kosol Energie. Under the 12-month agreement from October 2026 to September 2027, RenewSys will supply its CONSERV POE encapsulants and PRESERV backsheets to the Gujarat-based module manufacturer for its high-efficiency n-type TOPCon module production. This includes glass-to-backsheet modules produced at Kosol’s Gujarat factory. The deal follows an earlier 1.1 GW POE encapsulant supply agreement between the two companies that concluded in September 2026. RenewSys operates 17 GW of encapsulants, 4 GW of backsheets, and 5.6 GW of module production capacity. It is also installing a 2.7 GW solar cell line.  
Saatvik Green Energy Limited has commenced commercial production at its Gopalpur, Odisha factory effective November 2, 2026. Its wholly owned subsidiary, Saatvik Solar Industries Private Limited, has begun commercial production under Phase I, with an installed capacity of around 1.3 GW. It is part of the 4 GW project the company announced in its IPO (see India’s Saatvik Solar Seeking INR 11.5 Billion Through IPO). The remaining capacity will be commissioned in phases. 
French energy group ENGIE has commissioned two solar projects in India with a combined capacity of 450 MW. These facilities comprise the 250 MW Khaba Solar Plant in Barmer, Rajasthan, and the 200 MW Khavda Solar Project in Gujarat’s Rann of Kutch. These facilities will generate close to 650 GWh and 350 GWh annually, respectively. The Khavda project is contracted to supply power to Gujarat Urja Vikas Nigam Limited (GUVNL) under a 25-year power purchase agreement (PPA). This expands ENGIE’s total renewable energy capacity in India, under operation or under construction, to around 2 GW. 
Waaree Energies Limited has approved the acquisition of a 33.34% equity stake in Wictor Sealz Private Limited, a manufacturer of solar module sealants and specialty chemicals. It will acquire 3,334 equity shares in Wictor Sealz for INR 33,340 from Vimac Impex Private Limited. Following the acquisition, Waaree will make an additional investment of INR 5 crore in the company. March 31, 2027 is the long-stop date for the investment. With this investment, Waaree says it aims to strengthen its supply chain integration, reduce dependence on imported solar module sealants, and improve supply security. Wictor Sealz was incorporated in January 2026 and has yet to commence business operations. The acquisition is expected to be completed in FY 2026-27. Separately, Waaree Energies has also completed the acquisition of a 100% equity stake in Waaree Green Data Centers Private Limited (WGDCPL).  
Essar Renewables Limited (ERL), the renewable energy arm of India’s Essar Power, has signed a PPA with state-owned NHPC Limited for a 300 MW firm and dispatchable renewable energy (FDRE) project in Andhra Pradesh. Essar Power plans to invest close to INR 4,500 crore in the project that will integrate solar, wind, and a battery energy storage system (BESS). The company says this project is part of its plans to build a diversified energy portfolio of around 5 GW spanning renewable, thermal, and gas-based power generation assets.  
TaiyangNews 2024

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India's Renewable Energy Capacity Rapidly Increasing, Delivering Significant Economic and Energy Security Benefits
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India emerges as a global renewable energy leader, with expanding clean power capacity enhancing energy security and creating new manufacturing opportunities.
New Delhi: India is rapidly strengthening its position in global renewable energy markets, with the country’s expanding clean energy capacity enhancing energy security, reducing dependence on imported fuels and creating new manufacturing opportunities, according to a new report released by the International Energy Agency (IEA).
Launched at the Bharat Renewable Energy Summit in the national capital, the India Renewable Energy Market Report 2026 said the country's renewable power capacity has nearly quadrupled over the past decade, crossing 300 gigawatts (GW) in 2026.
India is now the world's second-fastest-growing renewable energy market and the second-largest manufacturer of solar photovoltaic (PV) modules.
The report noted that India achieved its target of sourcing 50 per cent of installed power capacity from non-fossil fuel sources in 2025, five years ahead of schedule, underscoring the pace of its clean energy transition.
According to the IEA, the rapid deployment of renewable electricity has already delivered significant economic and energy security benefits. Renewable power generation helped India save more than $100 billion in coal and natural gas import costs between 2011 and 2025. These cumulative savings are expected to more than double by the end of the decade.
The agency estimated that without the solar, wind and bioenergy capacity added since 2010, India's coal imports in 2025 would have been around 110 million tonnes higher.
Looking ahead, the report forecasts India's renewable energy capacity to reach around 530 GW by 2030, with solar PV accounting for more than 80 per cent of all new installations.
The growth trajectory is expected to keep the country on track to meet its broader non-fossil power capacity goals.
IEA Executive Director Fatih Birol said India's renewable energy expansion is delivering major energy security benefits at a time of heightened uncertainty in global energy markets.
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He noted that India's experience demonstrates how stable and consistent policy measures can help lower renewable energy costs, attract investments and provide lessons for other emerging economies.
Union Minister for New and Renewable Energy Pralhad Joshi said India's rise as a major renewable energy player reflects the progress made in recent years.
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India could attract $89 billion in solar PV manufacturing investments by 2047, says ISMA in a new report 
The proposed manufacturing expansion could generate 32.3 lakh direct and indirect jobs 
ISMA’s Vision 2047 pathway projects India’s total installed solar PV capacity to reach 2,275 GW by 2047, compared with 1,370 GW under current policies 
India’s solar PV manufacturing industry could attract $89 billion in new investments and generate 32.3 lakh in direct and indirect jobs by 2047 as the country progresses across the solar value chain. According to a new report by the Indian Solar Manufacturers Association (ISMA) that charts a long-term roadmap for the industry, by the middle of the next decade, India will have a fully vertically integrated solar value chain from polysilicon to modules. 
Under the current policies, India’s total installed solar PV capacity will reach about 278 GW by 2030, close to the 292 GW goal, and reach approximately 1,370 GW by 2047. Currently, the country’s solar capacity stands at 171 GW.  
ISMA projects additional electricity demand from new industries and infrastructure in its Vision 2047 pathway. If all planned programs are implemented in full, the report writers project India’s total installed solar PV capacity to rise to 330 GW by 2030, and about 2,275 GW by 2047. This will be enough to supply close to half of India’s electricity demand. 
This would require a substantial increase in manufacturing capabilities across the entire PV value chain. 
As per the report, India’s total solar module production capacity will increase from over 233 GW now to 355 GW by 2030, and 3,484 GW by 2047 under its Vision 2047 pathway. Cell capacity will rise from over 50 GW to 205 GW by 2030, and 3,128 GW by 2047. 
Ingot and wafer capacity will grow from more than 3 GW now to 56 GW by 2030 and 2,630 GW by 2047, while polysilicon capacity will rise from no capacity today to 20 GW by 2030 and 2,200 GW by 2047. 
All of this will require a total PV manufacturing investment to grow from $8.4 billion invested under the Production Linked Incentive (PLI) to $89 billion by 2047. This translates into an average annual investment of approximately $4.3 billion between 2027 and 2047. 
“On this pathway, India installs many times more solar; its solar PV manufacturing plants employ many more people, and almost all of the value of each panel stays in the country,” reads the report. 
Expanding domestic manufacturing is also expected to reduce India’s dependence on imported solar components. It estimates that India’s annual solar import bill, currently around $4.4 billion, is projected to decline by more than 95% by the early 2040s, but under the Vision 2047 pathway, it could reach zero by 2041. 
India could account for 26.5% of the global solar module supply by 2047, says ISMA, against 14% under the current policy scenario. However, it adds that exports have dropped sharply after trade and geopolitical shocks in the country’s key export markets. The report reads, “A wider and more diverse base of overseas customers would give Indian plants steadier earnings, larger scale and less exposure to any single market.” 
ISMA identifies policy certainty, sustained domestic demand, and timely implementation of manufacturing programs as key to achieving its projections. It also calls on the government to maintain predictable timelines under the Approved List of Models and Manufacturers (ALMM) and complete PLI-supported projects.  
The complete report, titled India’s Solar Manufacturing Vision 2047, is available for free download on ISMA’s website.  
In a recent report, the IEA said that India could account for half of global module manufacturing capacity outside China by 2030 (see IEA: India Can Help Diversify Global Solar PV Supply Chains). 
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The proposed site is located beside the popular Mayfield Lavender Farm(Image: Peter S)
Proposals have been submitted to build a ten-thousand-module solar farm on land beside a popular lavender farm and golf course in Banstead.
The site in question spans 15 hectares and is found on the Surrey-Sutton border split between the territories of Reigate & Banstead Borough Council and Sutton Council.
Those behind the project envision a ten-thousand-module estate split across four farms. It would be of a scale capable of powering up to 2,600 homes in the area, according to planning documents.
Plans were submitted to both planning authorities at the end of October. They request the councils to consider whether an Environmental Impact Assessment would be required prior to the submission of a full planning application for the development.
Based just off Croydon Lane, the solar farm would become neighbour to the popular Mayfield Lavender Farm, Oaks Park and The Oaks Golf Club if it were to receive approval.
A rough indication of the proposed site for the solar farm (Image: Google)
The proposals are in the early planning stages. Documents submitted to the councils do offer some detail on the projected scale of the development.
Vehicular access would be created off Croydon Lane, connecting the 14.9 hectare Green Belt site to the surrounding Banstead, Carshalton and Sutton areas.
The site would feature four solar photovoltaic (PV) farms, combining into an estimated total of 10,000 PV modules.
Five substations and car parking would accompany this; creating a solar farm with an installed capacity of approximately 7.1 MWp, and a grid export restriction of 4.9 MW.
Electricity produced would supply the national grid. Planning documents estimate that the facility would be able to provide power to up to 2,600 homes; based on the typical household electricity consumption of approximately 2,500 kWh per year.
The site itself spans just under 15 hectares, however planning documents do not provide an estimate regarding the scale of the solar farms themselves.
Opposite the proposed site is The Oaks Golf Club and Oaks Park café, and situated to the east is the Mayfield Lavender Farm.
A rough indication of the site relative to the Mayfield Lavender Farm and The Oak Golf Club(Image: Google)
Oaks Park as an area has a historic connection to sport. During the 18th Century, the land formerly hosted The Oaks, or Epsom Oaks horse race, which began in 1779 and continues to be a famous fixture at Epsom Downs.
By the early 20th Century, the land came into public ownership. The historic estate was converted into the golf course and public park you will find today in the early 1970s.
Mayfield Lavender Farm is equal in its historic connections to this area of Surrey and Sutton, which has been known for its lavender production for centuries.
Today, the 25 acre farm off Croydon Lane is thought to be one of the largest organic lavender farms in the UK. Mayfield opened to the public in the late 2000s and now welcomes thousands of visitors each year.
These two popular destinations could become neighbours to a large solar farm. The proposals for land off Croydon Lane can be viewed online on Reigate & Banstead’s Planning Portal and Sutton’s Planning Portal.
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We examine Glow Green’s solar panel prices, products, warranties and customer reviews to see whether this established installer is right for your home
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Glow Green is one of the UK’s longer-established solar installation companies, offering competitively priced systems, a choice of high-performance solar panels and nationwide coverage. It’s also our best overall pick in The Independent‘s guide to the best solar panel installers.
Founded in 2011, the company installs solar panels, home batteries and other energy-saving technology across the UK. Its main selling points are its pricing, product choice and extensive experience, while a strong Trustpilot rating suggests most of its customers are satisfied with the service.
Below, we’ve examined Glow Green’s costs, equipment, warranties and recent customer feedback to help you decide whether it deserves a place on your shortlist.

Glow Green
Founded
2011
Coverage
Great Britain
Solar panel brands
DMEGC, Perlight
Typical installation cost
£4,000–£8,000
Workmanship guarantee
Five years, insurance-backed
Battery brands
Tesla, Duracell Energy, Fox ESS and others
Accreditations
MCS, NICEIC, HIES
Trustpilot rating
4.6/5 from more than 1,350 reviews
Best for
Competitive pricing and a good choice of solar equipment
Glow Green is among the more competitively priced installers in our comparison of the UK’s best solar panel fitters. The company says a typical installation costs between £4,000 and £8,000, depending on the size of your property, the equipment you choose and whether you include battery storage.
To give an idea of what you might pay, Glow Green publishes the following example prices for a three-bedroom semi-detached home:
System
Indicative cost
Eight DMEGC panels
£4,990
Eight DMEGC panels with battery
£6,810
Eight Perlight panels
£5,370
Eight Perlight panels with battery
£7,420
Source: Glow Green’s published prices, September 2026. Prices are illustrative and subject to change.
These figures suggest that adding battery storage could increase your initial investment by around £1,800 to £2,100 for the example systems; however, the additional cost will depend on the battery model and capacity.
Glow Green also promotes fixed-price quotations, which might appeal to homeowners who are concerned about unexpected installation costs. However, you should establish exactly what your quote includes and whether any additional work identified before the installation could change the final price.
As with any installer, it’s worth obtaining at least three quotations. You should also compare the size and expected electricity generation of each system, as well as the quality of the panels, batteries and warranties, rather than focusing on the headline price alone.
One of Glow Green’s strengths is its choice of solar panels, which includes models from DMEGC and Perlight – both established brands in the market.
DMEGC Infinity panels are particularly worth considering, as DMEGC topped our comparison of the best solar panels, offering a good balance between efficiency, power output, warranty protection and long-term performance. In fact, these panels are designed to retain more than 87 per cent of their original output after 30 years.
DMEGC is also recognised as a tier-one manufacturer, a classification relating primarily to the manufacturer’s financial standing and ability to supply large projects, rather than an independent guarantee of panel quality. This might seem like a small detail, but when you’re investing in a product that should last for three decades or more, you want the peace of mind in knowing that the manufacturer will likely still be trading and providing support.
Perlight panels are another option, particularly for homeowners with limited roof space. Glow Green offers high-output Perlight panels that can generate more electricity per panel than lower-wattage alternatives, provided your roof layout and other conditions are suitable.
Perlight panels also come with warranties of up to 30 years, although buyers should check the specific model’s product and performance warranty terms.
Lloyd Greenfield, Glow Green’s founder and CEO, told The Independent: “I think the most important factor to consider is clearly the warranty, because there’s a big difference between panels. The Perlights we fit have 30 years, [while] some of the manufacturers drop all the way down to 15.”
He added that buyers should also consider “the reputation of the manufacturer, how longstanding that business is”, alongside panel efficiency and cell technology.
He also warned that choosing cheaper, lower-output panels isn’t always the best long-term investment. Where roof space is limited, spending more on higher-wattage panels could deliver greater electricity generation over the system’s lifetime.
Ultimately, the best choice will depend on your roof space, electricity consumption and, of course, your budget. It’s worth asking Glow Green to provide a generation estimate for each panel option so you can compare the likely long-term value.
Yes. Glow Green offers home battery storage alongside solar panels, with options from manufacturers including Tesla, Duracell Energy and Fox ESS.
Adding a battery allows you to store some of the electricity your panels generate during the day and use it later, rather than exporting it all to the grid. This can be particularly useful for homes that consume more electricity in the evening.
Depending on the battery and your electricity tariff, you may also be able to charge it using cheaper overnight electricity.
Battery storage is becoming an increasingly popular addition to rooftop solar installations. “Over 95 per cent of our solar customers take a battery with an installation,” Greenfield said. “Surprisingly, a year later, we find 10 per cent of the customers actually come back and want a second battery.”
However, a battery won’t necessarily provide the best financial return for every household. Its value depends on your electricity consumption, solar generation, tariff and the additional installation cost.
Glow Green also installs heat pumps, EV chargers, boilers and air conditioning systems, making it an option for homeowners planning multiple energy upgrades.
Glow Green has a strong customer reputation, with a Trustpilot rating of 4.6 out of five from more than 1,350 reviews as of November 2026. Around 82 per cent of reviewers award the company five stars.
Glow Green offers a remote quotation process, allowing homeowners to obtain an initial estimate without an in-person visit.
Installation quality is a recurring strength in customer reviews. Customers frequently praise the professionalism of fitting teams, the care taken around their properties and the speed of installation. Several also highlight competitive pricing, helpful sales staff and clear explanations of how their systems work.
The Independent has previously observed a Glow Green installation first-hand, with the work completed to a high standard.
However, not every customer has a smooth experience. Some reviewers – a minority – report postponed installation dates, scaffolding delays and difficulties contacting the right department when problems arise.
Others describe delays in receiving post-installation paperwork, including the MCS certificates needed to apply for payments for exporting surplus electricity.
Overall, though, customer feedback broadly suggests Glow Green’s installation teams are a particular strength.
You can read the latest feedback on Glow Green Solar’s Trustpilot page.
Glow Green has operated since 2011, giving it a longer track record than many newer solar installers. It is MCS certified, NICEIC registered and a member of the Home Insulation & Energy Systems Contractors Scheme (HIES), which provides additional consumer protections.
The company offers a five-year insurance-backed workmanship guarantee covering installation-related defects, although this is shorter than the 10-year cover provided by some competitors. Separate manufacturer warranties apply to its solar panels and batteries, with some Perlight panels offering protection for up to 30 years.
Glow Green also uses the Energy Performance Validation Scheme (EPVS) for its standard performance calculations, helping to ensure that projected electricity generation and savings are based on realistic assumptions.
Taken together, these credentials provide reassurance, although homeowners should check the specific warranty terms and aftercare arrangements before signing a contract.
Yes. Glow Green is regulated by the Financial Conduct Authority (FCA) as a credit broker and works with a panel of lenders to offer finance for solar panels, batteries and other home-energy installations.
This means you may be able to spread the cost of your system rather than paying everything upfront. However, financing can increase the overall cost of solar installation, depending on the interest rate and repayment term.
The government has also introduced the Warm Homes Loan Scheme to help improve access to finance for energy-saving home improvements.
If you’re considering borrowing, ask Glow Green which finance products are currently available, the representative APR, total amount repayable and whether you qualify for any government-supported terms.
It’s also worth comparing the total financing cost against the electricity savings you realistically expect from your system.
Pros
Cons
Glow Green remains a strong choice for homeowners seeking competitively priced solar panels from an established national installer. Its range of DMEGC and Perlight panels, industry credentials and generally positive customer feedback make it worth considering.
Installation quality attracts particularly strong reviews, although its five-year workmanship guarantee is also shorter than some competitors offer.
Overall, we’d recommend including Glow Green on your shortlist, particularly if price and product choice are priorities. However, compare its quote, warranties and aftercare arrangements against those of other installers before committing.
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India’s solar manufacturing sector could evolve into a fully integrated global player by 2047, according to a report by the Indian Solar Manufacturers Association. The ISMA report projects that such a transition could create 3.23 million direct and indirect jobs, draw $89 billion in manufacturing investment, and eliminate the country’s solar import bill.
The study sets out a path for India to move past module assembly and build domestic capabilities across the solar value chain, spanning polysilicon, ingots, wafers, cells, and modules. Such a shift could let India retain a much larger share of the value created by panels made at home while improving its standing in global markets.
Under a current-policy scenario, ISMA expects India’s installed solar capacity to reach about 278 GW by 2030, close to the 292 GW target, and then rise to roughly 1,370 GW by 2047. That later figure is somewhat below NITI Aayog’s current-policy projection of 1,430 GW to 1,650 GW by 2050.
The Vision 2047 scenario factors in extra electricity demand from emerging industries and infrastructure. Assuming planned programs are fully implemented, ISMA estimates installed solar capacity could hit 313 GW by 2030 and about 2,275 GW by 2047, enough to cover nearly half of the country’s electricity demand.
To underpin that expansion, the solar PV manufacturing industry would need cumulative production capacities of about 3,484 GW for modules, 3,128 GW for cells, 2,630 GW for ingots and wafers, and 2,200 GW-equivalent for polysilicon by 2047.
Capacity across the value chain is expected to grow quickly, helped by government-backed projects that require procurement of domestically made solar products.
The expansion could generate significant employment, with total manufacturing-related jobs rising from about 410,000 at present to 740,000 by 2030 and 3.23 million by 2047. Direct employment in solar PV plants could climb from around 140,000 to 1.11 million by 2047.
The share of direct jobs in cell, wafer, and polysilicon manufacturing could grow from roughly 10% today to about one-third by 2030 and more than half by 2047, creating skilled roles for technicians, engineers, and chemists.
ISMA estimates that about $89 billion in new solar PV manufacturing investment could be needed by 2047 under the Vision 2047 scenario, averaging $4.3 billion a year between 2027 and 2047. Close to 70% of that investment is expected to flow to polysilicon, wafer, and cell manufacturing. India’s Production Linked Incentive scheme had already drawn about $8.4 billion in investment as of June 2026, with each dollar of incentives mobilizing around $4 in private investment.
A more integrated domestic ecosystem could also sharply cut reliance on imported solar components. The report projects the annual solar import bill could drop from about $4.4 billion at present to zero by 2041 under the Vision 2047 scenario. India could also supply 26.5% of global solar module supply by 2047, against a projected 5.9% under the current-policy scenario in 2030.
Amit Manohar, secretary general of ISMA, said the sector stands at a pivotal moment and that the Vision 2047 pathway offers an unprecedented opportunity to build a globally competitive, integrated manufacturing ecosystem. He noted that the potential to attract $89 billion in investment, generate more than 32 lakh jobs, and cut import dependence highlights the strategic importance of strengthening domestic manufacturing across the entire solar value chain, while cautioning that realizing the ambition will require sustained policy support, a predictable demand pipeline, upstream investment, and continued efforts to strengthen global competitiveness.
The report identifies policy certainty, sustained domestic demand, and timely implementation of manufacturing programs as critical. It calls for maintaining firm timelines under the Approved List of Models and Manufacturers, completing PLI-supported projects, expanding rooftop and agricultural solar programs, and accelerating upstream investment. It also points to the need for domestic manufacturing equipment, stronger technical skills, advanced solar cell technologies, recycling frameworks, and broader export markets.
The Vision 2047 scenario envisages a phased transition, with cell manufacturing scaling up through 2030, wafer production expanding through 2035, and a fully integrated value chain emerging after that.
Interactive table based on the Store Companies dataset for this report.
This report provides an in-depth analysis of the Solar Panels market in India, covering market size, growth trajectory, demand structure, supply capability, trade flows, pricing, competitive landscape, and forecast to 2035.
The study is designed for manufacturers, distributors, importers, exporters, investors, procurement teams, advisors, and strategy teams that need a consistent, data-driven view of market dynamics and a transparent analytical definition of the product scope.
This report covers photovoltaic (PV) solar panels, which are devices that convert sunlight directly into electricity. It encompasses the global market for finished modules, including all major product technologies and form factors designed for a wide range of end-use applications.
The report combines the standard market-statistics backbone with strategic chapters that are useful for commercial planning, sourcing decisions, market entry, competitor monitoring, and portfolio prioritization.
The market is segmented into decision-relevant buckets so that demand drivers, pricing logic, supply constraints, and competitive positions can be compared across the same analytical frame.
The market data is classified and analyzed according to international trade codes, primarily under the Harmonized System (HS) headings for photovoltaic cells and electric generating sets. This ensures consistent tracking of trade flows for assembled solar modules and relevant apparatus across global markets.
Coverage focuses on India and includes demand, supply capability where present, trade flows, pricing, competition, and outlook.
The report combines official statistics, trade records, company disclosures, product-level evidence, and analyst validation. Data are standardized, reconciled, and cross-checked to keep market sizing, trade flows, pricing, and forecasts comparable across countries and time periods.
All indicators are mapped to a consistent product definition and reviewed against the segmentation framework used in the Table of Contents.
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Operates an integrated solar manufacturing business in India
Indian module maker supplying domestic and export markets
Long-established Indian solar module and system supplier
Indian solar manufacturer with module production in Telangana
Indian module producer serving domestic and export customers
Indian producer of modules, encapsulants and backsheets
Indian module manufacturer supplying utility and rooftop markets
Indian solar manufacturer with module production in Karnataka
Indian energy company with domestic module manufacturing
Indian module maker serving utility, commercial and rooftop projects
Indian module manufacturer with domestic and export sales
Indian module producer supplying EPC and distribution channels
Indian solar brand focused on distributed and rooftop products
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MCS has issued guidance for the testing, classification, and assessment of roof integrated solar photovoltaic (PV) mounting systems when exposed to external fire sources.
The guidance – Guidance Document for Test Laboratories: Identification and Testing of Roof Integrated Solar Photovoltaic (PV) Mounting Systems to DD CEN/TS 1187:2012 – Test 4 – has been created by MCS in collaboration with its Solar PV and Solar Mounting Technical Working Groups.
The guidance only applies to roof integrated solar PV, that is PV modules integrated into the pitched roof plane, sometimes also referred to as building-integrated photovoltaics (BIPV).
A supplementary Interpretation Note will also be issued in the coming weeks, providing further guidance for product certification bodies.
It will clarify how the changes to BS EN 15725: 2023 can be understood in the context of MCS certification and provides a route to certification for products under MCS 012 in the absence of a sufficient BSI standard.
The guidance follows changes to the European standard from September 2023 which left uncertainty over how roof integrated solar PV mounting systems could achieve a fire classification.
In integrated solar roof systems, where solar PV modules form the roof covering, a fire classification is the main way of demonstrating compliance with the external fire performance requirements of building regulations across the UK. It is also essential for certification under MCS 012: The Solar Mounting Product Standard.
Lisa Cooke, Managing Director at MCS, said: “We know that this is a crucial issue that affects our installer and manufacturer base. The sector needs clarity and guidance to ensure robust certification, market continuity, and quality installations, so we’ve taken steps to work with partners and find a solution.”
Solar PV is the most popular MCS technology, with over 2.1 million certified installations to date across UK homes and small businesses.
With the Future Homes Standard set to make solar PV the default option on new builds from next year, roof integrated solar PV is set to be an increasingly important part of meeting government building requirements and Net Zero targets.
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Gujarat-based solar module manufacturer Rayzon Solar Ltd is set to commence production at its 5.1 GW TOPCon solar cell manufacturing facility in December 2026, with initial deliveries expected in the first quarter of 2027. The facility marks the company’s expansion beyond module manufacturing as it seeks to strengthen backward integration and reduce its reliance on imported solar cells.
Founded in 2017 by Chirag Nakrani and Hardik Kothiya, Rayzon Solar has currently an installed solar module manufacturing capacity of 11.3 GW.
The company said it remains focused on executing its manufacturing roadmap and building capabilities across the solar value chain despite a shift from IPO proceeds to debt financing amid market volatility.
Looking ahead, Rayzon Solar plans to further expand its upstream manufacturing operations with a proposed 5.1 GW ingot casting and wafer slicing facility, targeted for development by 2028. The company is in discussions with multiple state governments to evaluate incentives and finalise a suitable location for the proposed project.
“The commissioning of our 5.1 GW TOPCon solar cell manufacturing facility in December 2026 will mark an important milestone in Rayzon Solar’s journey towards deeper backward integration,” said the company’s co-founder Chirag Nakrani. “As we advance our cell manufacturing plans, our next phase of expansion will focus on a proposed 5.1 GW ingot casting and wafer slicing facility, targeted for 2028. We are engaging with multiple states to assess incentives and finalise the location for this proposed investment.”
Alongside its solar cell expansion, Rayzon Solar has completed an aluminium extrusion and anodising facility with an annual capacity of 19,800 metric tonnes for manufacturing solar module frames.
The company is also investing in research and development, with three patent filings over the past year. Its R&D programme includes work on tandem solar cell technology and nano-coatings for next-generation solar modules, with product launches targeted by 2028.
Hardik Kothiya, Co-Founder, Rayzon Solar, said, “Our strategy is centred on building a technologically advanced and increasingly integrated solar manufacturing ecosystem in India. By expanding from modules into TOPCon cell manufacturing, and subsequently exploring upstream integration through ingot and wafer manufacturing, we aim to strengthen domestic capabilities, reduce import dependence and enhance our competitiveness in global markets. Combined with investments in research and development, these initiatives reflect our long-term commitment to India’s renewable energy ambitions and the future of solar manufacturing.”
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A research team led by scientists at Southeast University in China has developed a self-powered photovoltaic-thermoelectric generator system that integrates hotspot detection, local thermal management and wireless monitoring into a thermoelectric generator array, according to pv magazine. The work, described in Applied Thermal Engineering, also involved contributors from the University of Technology Sydney in Australia.
Thermoelectric generators convert heat into electricity through the Seebeck effect, in which a temperature difference between two dissimilar semiconductors produces a voltage. Such devices are commonly used in industry to recover waste heat, but high costs and limited efficiency have constrained wider adoption. In PV-TEG systems, solar panels generate electricity during the day while thermoelectric generators exploit temperature differences to produce additional power.
Corresponding author Jingming Cai told the publication that the central advance lies in moving past the conventional waste-heat harvesting role of thermoelectric generators, showing that their electrical signals can also indicate where thermal anomalies occur within a PV module. By arranging four thermoelectric generators in a compact array, the team built a system that combines hotspot localization, passive thermal management, energy harvesting and wireless monitoring. Cai characterized the approach as turning solar panel waste heat into a source of both energy and diagnostic information.
The researchers first built a three-dimensional multiphysics model of a 500 mm by 500 mm PV region fitted with four rear-mounted thermoelectric generators and an aluminum heat sink. The model coupled heat transfer and thermoelectric conversion under baseline conditions of 1,000 W/m2 irradiance and an ambient temperature of 25 C. A 20 mm by 20 mm heat source was placed at nine positions, and normalized voltage changes were mapped to hotspot coordinates. The team then evaluated localization accuracy at three additional positions, compared cooling performance against a bare PV module, and assessed sensitivity to environmental conditions and thermal contact resistance.
The simulations indicated that distinct hotspot locations produced differentiated four-channel voltage patterns, enabling quantitative mapping from normalized voltage responses to two-dimensional coordinates. Simulated local temperature reduction ranged from 8.15 K to 12.40 K.
The team conducted outdoor tests in Taizhou, eastern China, installing the system on a rooftop array at a telecommunications facility. Thermoelectric generator temperatures, supercapacitor voltage and wireless transmission events were monitored from roughly 8 a.m. to 6 p.m. The monitoring electronics activated when capacitor voltage reached 4.0 V and switched off at 2.8 V to permit recharging. Infrared imaging was used to compare local point temperatures and regional averages with a reference PV region. To test localization, black tape was applied at three positions to create controlled thermal disturbances; the voltage responses of the four generators were measured and anomaly coordinates reconstructed. Each position was tested three times, with infrared imaging verifying the location and temperature of each anomaly.
Cai said the accuracy achieved by an array of only four thermoelectric generators was the most surprising result. In the outdoor experiment, localization error was approximately 9.93 mm. The integrated system reduced local PV surface temperature by up to 7.7 C at the measured point, with an average reduction of 5.4 C across the monitored region.
He also noted that the system operated without an external power supply for the monitoring electronics, completing about 45 wireless transmissions during a 10-hour daytime field test. According to Cai, the findings suggest that even relatively small amounts of photovoltaic waste heat can be valuable when converted into sensing capabilities rather than simply additional electricity.
The team plans to investigate how the system performs under electrically induced PV hotspots and more complex outdoor operating conditions. Cai described a long-term vision of solar panels capable of monitoring their own thermal health, identifying potential faults early and reducing the need for energy-intensive monitoring infrastructure.
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AIKO signs 1 GW of Gen 4 agreements at All-Energy Australia  The Malaysian Reserve
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