New data from global energy consultancy Rystad Energy shows that all Australian large-scale solar power plants generated 5,100 GWh of clean energy last month, down 2% on the 5,200 GWh produced in October 2025 with Western Australia home to two of the top three best-performing utility PV assets for the month.
The 100 MW Merredin Solar Farm, owned Indonesian PV developer Sun Energy, was ranked Australia’s top-performing big PV facility for the month with Rystad Senior Analyst David Dixon noting the power plant had delivered an average AC capacity factor (CF) of 35% for the month.
Spanish energy giant Naturgy’s 128 MW Cunderdin Solar Farm ranked second for the month with the Western Australian facility delivering an average capacity factor of 32%.
Pacific Partnerships’ 102 MW Glenrowan Solar Farm in Victoria was ranked third with a capacity factor of 32% while stages one and two of Acen Australia’s 400 MW Stubbo solar project in New South Wales (NSW) were ranked fourth and fifth respectively.
Dixon said all Australian utility-scale PV and wind assets generated 5.1 TWh of clean energy last month, a 2% decrease on the 5.2 TWh generated in October 2025.
At a state level, Victoria was the biggest single contributor to the month’s total, generating 290 GWh from utility-scale solar and 1,130 GWh from wind – a total of 1,420 GWh.
The top wind assets for the month were the Flat Rocks (48% CF) and Warradarge (47% CF) wind farms in Western Australia, with the Clarke Creek stage 1b (44% CF) wind farm in Queensland third.
Dixon highlighted that on a trailing 12-month basis, the number of hours of negative prices and curtailed utility solar and wind generation are both beginning to decline as utility battery capacity comes online.
He said this trend is expected to continue over the next 24 months as the National Electricity Market (NEM) utility battery fleet grows from the current 26 GWh to almost 60 GWh by end 2028.
Dixon also noted that gas generation for October totalled 426 GWh in the National Electricity Market (NEM), the lowest for the month of October since the NEM began.
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The Autumn issue of 2026 is available now! The new issue begins with a regional report on Asia Pacific, looking at the region’s transition from building capacity to building systems. The issue also explores topics such as offshore wind foundations, solar maintenance, training the new workforce, inspection & maintenance, and more! With insights from experts such as Everllence, BW Ideol, EM&I, Watson Farley & Williams, and many more, make sure to check out this issue now.
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The PNE Group has continued its project development activities in South Africa with the sale of a large photovoltaic project.
The PNE Group is continuing its project development activities in Africa. The company has concluded the sale of another large photovoltaic (PV) project, located in the Free State province, with a planned nominal capacity of 250 MW, to a major South African independent power producer.
PNE South Africa will continue to develop the project following the sale by providing project development support to the investor through to financial close.
Roland Stanze, COO of PNE AG, commented: “With the sale of this strategic, large scale PV project, we are continuing project development in South Africa. The transaction demonstrates that our local teams are able to develop attractive projects in international growth markets and successfully market them. At the same time, we remain involved in the project and contribute our expertise to its further development. The transaction also underlines our ability to continuously realise value from our extensive project pipeline and to sell projects at the appropriate time.”
South Africa is an important international market for PNE. As of June 2026, the PNE Group’s project pipeline in the country comprised around 2000 MW of PV and around 2800 MW of wind energy.
For more news and technical articles from the global renewable industry, read the latest issue of Energy Global magazine.
The Autumn issue of 2026 is available now! The new issue begins with a regional report on Asia Pacific, looking at the region’s transition from building capacity to building systems. The issue also explores topics such as offshore wind foundations, solar maintenance, training the new workforce, inspection & maintenance, and more! With insights from experts such as Everllence, BW Ideol, EM&I, Watson Farley & Williams, and many more, make sure to check out this issue now.
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A planned 70-hectare solar farm in Tavira, in the parish of Cachopo, would require the removal of 527 holm oaks and one cork oak, according to environmental documents now open for public consultation.
The proposed Terra Ruiva photovoltaic plant is planned for an area of the Serra do Caldeirão mountain range, near the villages of Alcarias de Baixo and Amoreira.
The Portuguese Environment Agency (APA) has opened the public consultation on the project’s Environmental Impact Assessment, with members of the public able to submit comments until December 9.
The scheme would have a total installed capacity of 53.42 megawatt-peak (MWp) and include solar panels and associated infrastructure across land currently occupied by scrub, holm oaks and stone pines.
A new 1.5-kilometre high-voltage overhead line, supported by 10 pylons, is also planned to connect the plant to the Tavira electrical substation.
The project is being promoted by C.Solar NE14 Brinqueira, SA, part of Chint Solar Portugal.
According to the Environmental Impact Study, construction would require the removal of 527 holm oaks and one cork oak. To compensate, the developer proposes planting 1,368 holm oaks across 8.71 hectares of land in Cachopo leased for 20 years.
The promoters argue that the solar plant will contribute towards Portugal’s and the European Union’s renewable-energy targets while helping reduce greenhouse gas emissions.
But the environmental study also acknowledges that vegetation clearance and earthworks will alter soil conditions, increasing compaction and erosion. It concludes, however, that with the replacement of topsoil and planned landscape restoration, the impact on soil and land use would be “negative and of little significance”.
The predicted effects on flora and fauna are given the same classification, with the developer arguing that they will be largely limited to the areas directly affected and the construction period.
The plant is expected to take around 13 months to build and have an operational lifespan of 30 years.
The promoters also point to temporary economic benefits during construction, including jobs and additional spending on local accommodation, restaurants and businesses.
They describe the socioeconomic impact as positive but limited in scale.
The public consultation began on October 27 and remains open until December 9.
Anyone wishing to examine the Environmental Impact Assessment or submit comments can do so through the Participa public consultation portal.
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In 2018, residents of Athens, Ohio, did something unusual – they voted to raise their own utility bills.
The voters chose to adopt a carbon fee, a small bump in their electricity rate that goes to solar energy projects on city buildings and other public sites.
The fee is less than two dollars a month for the average household.
Mayor Steve Patterson says the idea passed with broad support.
Patterson: “Three-quarters of the citizens who voted during that election cycle said, ‘Yes, we are willing to pay an extra $1.80 per month to have more solar.’”
And residents who don’t want to pay can opt out.
But most have not. So the city now raises about $100,000 dollars each year from the carbon fee.
This money has helped add solar to Athens’s historic armory, upgrade the transformer for a solar array at a public pool, and fund other projects around the city.
Patterson: “I get comments all the time thinking how wonderful it is to see the city taking on solar initiatives to reduce our energy consumption from the grid. Knowing that it’s renewable energy in the city of Athens, to them it’s exciting.”
And by producing its own solar energy, Athens lowers the amount of taxpayer money spent on electricity – while reducing carbon pollution.
Reporting credit: Ethan Freedman / ChavoBart Digital Media
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On the Papo Solar Podcast, representatives from Fox ESS highlighted the need for technical training and consultative selling.
Matheus Bueno and Paula Bordin do Prado on the Papo Solar Podcast #198. Photo: Maria Eduarda Perini Wey
The lack of qualified professionals is one of the main challenges for the consolidation of the battery energy storage (BESS) market in Brazil. This is the assessment of Matheus Bueno, Pre-Sales Coordinator at Fox ESS Brazil, and Paula Bordin do Prado, an electrical engineer specializing in storage systems at the company.
The professionals participated in the Papo Solar podcast last Tuesday (27), when they discussed the challenges of training in the sector and a partnership between Canal Solar Educacional and Fox ESS are partnering to train professionals. More information about the initiative will be released soon.
“Training is a pain point in the market,” Bueno stated during the episode.
According to experts, one of the obstacles lies in trying to apply the same commercial and technical methods traditionally used in grid-connected photovoltaic systems to storage.on-gridThis approach, described by Paula as a “mindset bias,” can make it difficult to identify the specific needs of each client.
According to those interviewed, in the BESS market, defining the solution depends on a more detailed analysis of the consumption profile, energy supply conditions, and consumer objectives. Therefore, sales and installation require a technical and consultative approach, rather than simply replicating previous projects.
Paula emphasizes that the conversation with the client needs to start from concrete situations in order to correctly size the system.
“[We] try to direct the questions to the end customer, because if you ask the end customer, who is a layperson, how long they want battery life, that’s it, 24 hours. It’s different from asking them, when their power goes out, how many hours they are actually without power?”, he explained.
The difference lies in understanding the consumer’s real need for autonomy. An establishment that experiences frequent, short interruptions, for example, may require a different setup than one that cannot be interrupted for extended periods.
According to professionals, the advancement of storage in Brazil increases the need for professionals capable of designing, sizing, installing, and marketing systems according to each application.
According to data from ABSAE (Brazilian Association of Energy Storage Solutions), the Brazilian BESS market is driven, among other factors, by a 53% reduction in battery costs between 2020 and 2025.
The projections cited point to a market with the potential to generate R$ 77 billion by 2034. Despite cost reductions and increased opportunities, the availability of skilled labor remains a challenge.
The data presented in the reference material indicates that 74% of recruiters report difficulties in filling technical positions. In this scenario, training becomes important not only to increase the number of available professionals, but also to avoid errors in the specification and installation of equipment.
Improper application of solutions can compromise system performance and prevent the consumer from obtaining the expected results. Therefore, understanding battery characteristics, safety requirements, and customer consumption profiles is fundamental for market development.
During the Solar Talk event, representatives from Fox ESS highlighted that the more than 50% drop in battery prices has contributed to making the technology more accessible to different consumer profiles, although the investment may still be higher than that of a conventional photovoltaic system.
Among the main opportunities for energy storage in the country are the C&I (commerce and industry), agribusiness, charging stations, and residential market segments.
In the C&I segment, BESS can help companies reduce energy costs and increase the security of their electricity supply. One of its applications is… peak shavingThis involves using stored energy to reduce peak demand and, depending on the tariff structure and consumption profile, decrease expenses related to contracted demand.
Another possibility is to store energy during cheaper periods to use it during peak hours, a strategy known as… load shiftIn addition to cost savings, batteries can provide power to essential equipment during power outages, provided the system is sized and configured for this purpose.
Hotels, supermarkets, and industries are among the establishments that can use BESS to reduce the impacts of supply failures, complementing or, in certain applications, reducing dependence on diesel generators.
In agribusiness, energy storage can be combined with solar power generation to increase the use of energy produced and reduce dependence on diesel generators.
The solution can support activities that require a continuous power supply, such as irrigation systems, refrigeration, product storage, and other operations that depend on electricity.
In addition to helping control operational costs, the combination of solar energy and batteries can reduce the consumption of fossil fuels, depending on the system configuration and operating characteristics.
In the residential market, opportunities are related to the increase in self-consumption of solar energy and the search for greater autonomy from the electricity grid.
With changes in distributed generation regulations and challenges related to power flow reversal in certain networks, energy storage can allow some of the energy produced during the day to be used later, instead of being immediately injected into the grid.
Batteries can also provide power during power outages, provided the system has backup capabilities and circuits configured to keep the selected loads running. Feasibility depends on the household’s consumption profile, the system’s capacity, and the installation costs.
The electric vehicle charging infrastructure also represents an opportunity for BESS. At charging stations, batteries can supply some of the power needed during peak demand periods, reducing the load on the electricity grid.
This application can facilitate the deployment of chargers in locations where existing infrastructure has power limitations or where expansion would require significant investment. Storage also allows batteries to be charged during periods of lower demand and the stored energy to be used during charging sessions, according to the technical and economic conditions of the project.
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Brazil ranks eighth on the list with 509 TWh, according to Worldometer
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By PR Newswire
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.
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.
View original content to download multimedia:https://www.prnewswire.com/apac/news-releases/closing-the-loop-sungrow-sponsors-solar-and-storage-system-to-power-northern-rivers-solar-recycling-hub-302928610.html
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UTM Comments is a partnership between Macau News Agency and Macao University of Tourism By Jessica Marques Macau residents are increasingly visiting the Greater Bay Area for leisure activities, and the ‘Northbound Travel for Macau Vehicles’ scheme has made trips into Guangdong even more convenient for eligible residents by allowing them to drive their own cars. According […]
Wellbeing is not an optional benefit added after business objectives are achieved. In a people-centred industry, it is part of the operating model. For Macao’s large resorts, independent restaurants and other tourism businesses, caring for employees is also a way of protecting service quality, reputation and long-term competitiveness.
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Acciona Energía has announced plans to build three co-located battery energy storage systems totaling 21.2 MW / 41.7 MWh across its operational solar portfolio in the Dominican Republic, targeting commercial operation in late 2027.
Spanish renewables developer Acciona Energía will install 21.2 MW / 41.7 MWh of battery energy storage systems (BESS) across three of its operational solar photovoltaic assets in the Dominican Republic.
The installations will be co-located at the Pedro Corto (82.7 MWp), Calabaza I (58 MWp), and Cotoperí Solar (162.6 MWp) plants, which together represent 303.3 MWp of installed solar capacity. The developer plans to commission all three sites in the final quarter of 2027.
By co-locating the systems, the developer aims to cut capital expenditure through shared balance-of-plant infrastructure, avoiding additional land acquisition and utilizing established substation and grid connection points.
The investment follows recent regulatory shifts within the Dominican Republic’s National Interconnected Electrical System (SENI), as grid operators contend with reduced system inertia and rising curtailment, with battery storage mandates and ancillary service market structures.
Acciona generally operates its assets alongside local investment partners, holding 51% stakes, with pension and regional impact capital showing that institutional investors in the region view storage as an investable, bankable asset class.
Acciona has not yet disclosed EPCs, BESS OEMs, or system integration partners.
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NEM Data Spotlight: Utility-scale solar falls in October as rooftop lifts output in Australia PV Tech
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Tongwei stock remains under pressure after Morningstar reported on Tuesday, November 3, 2026, that Tongwei and several other Chinese solar manufacturers were still loss-making in the third quarter. The report points to persistent industry strain rather than a single-company setback.
Polysilicon overcapacity remains the central issue for the sector. After substantial investment during the earlier supply shortage, manufacturers are now operating in a market where excess capacity has weighed on prices and profitability.
Morningstar’s analysis names Tongwei alongside Jinko Solar, JA Solar, Trina Solar, LONGi, TCL Zhonghuan and CSI Solar among the affected manufacturers. For investors, the comparison highlights the cyclical risk facing the broader Chinese photovoltaic industry and the importance of any sustained improvement in supply discipline.
Tongwei operates across green agriculture and green energy. Its activities include aquaculture feed, high-purity polysilicon, solar cells, modules and photovoltaic power projects, with operations in China and overseas markets, according to the company’s profile.
The company is one of China’s major integrated solar manufacturers, while Jinko Solar, JA Solar and Trina Solar compete in overlapping photovoltaic markets. Tongwei’s breadth across upstream materials and downstream products gives it a broader industrial footprint than more narrowly focused suppliers, but it also leaves earnings exposed to weakness at several points in the solar value chain.
Investors can place Tongwei stock in the broader Chinese equity context through the Shanghai Composite.
More reports and analysis are available in the Tongwei stock topic.
Renewable groups will have to invest in UK communities where they build projects Financial Times
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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.
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.
SOURCE Sungrow
Sungrow, a globally leading PV inverter and energy storage system provider, celebrates a successful showing at All-Energy Australia 2026, held in…
Sungrow, a globally leading PV inverter and energy storage system provider, announced the Australian debut of its all-in-one residential energy…
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India’s solar manufacturing industry could create 32.3 lakh direct and indirect jobs, attract $89 billion in investments and eliminate the annual solar import bill by 2047, according to the Indian Solar Manufacturers Association (ISMA). The industry body has called for an integrated domestic manufacturing ecosystem covering the entire solar photovoltaic value chain.
New Delhi, Nov 04: India could transform its solar manufacturing industry into a globally competitive, fully integrated manufacturing powerhouse by 2047, creating 32.3 lakh direct and indirect jobs and attracting $89 billion in investments, according to the Indian Solar Manufacturers Association (ISMA).
In a statement issued on Tuesday, the industry body said India needs to move beyond solar module assembly and develop manufacturing capabilities across the entire solar photovoltaic (PV) value chain, covering polysilicon, ingots, wafers, cells and modules.
Such an integrated manufacturing ecosystem could enable India to retain a larger share of the value generated by domestically manufactured solar panels while strengthening its position in international markets.
Amit Manohar, Secretary General of ISMA, said achieving this ambition would require sustained policy support, a predictable demand pipeline, investments in upstream manufacturing and continued efforts to improve India’s global competitiveness.
The ISMA projections indicate that India’s installed solar capacity could reach 2,275 GW by 2047, supported by substantial expansion across the manufacturing value chain.
The projected manufacturing capacities include:
According to the report, the complete manufacturing chain could meet domestic demand within the next decade, with each segment progressively expanding to support India’s growing solar installations and export ambitions.
The expansion of domestic solar manufacturing could significantly increase employment opportunities across the sector.
The report estimates that total manufacturing-related employment could rise from nearly 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 over the same period.
Nearly 68% of direct manufacturing jobs could be concentrated in upstream segments such as solar cells, wafers and polysilicon by 2047. This reflects the potential employment impact of developing manufacturing capabilities beyond the final assembly of solar modules.
A deeper domestic manufacturing ecosystem could substantially reduce India’s dependence on imported solar components.
The ISMA report projects that India’s annual solar import bill could decline from approximately $4.4 billion currently to zero as domestic manufacturing capacity expands across the value chain.
India could also increase its share of global solar module supply to 26.5% by 2047, compared with around 5.9% under the current policy scenario by 2030, according to the projections.
The proposed shift towards integrated manufacturing would help retain more value within the domestic economy while strengthening the country’s position in global solar supply chains.
The report estimates that nearly $89 billion in fresh investments could be required to establish and expand India’s solar PV manufacturing ecosystem by 2047.
This would translate into an average annual investment requirement of approximately $4.3 billion between 2027 and 2047.
Nearly 70% of the projected investments are expected to flow into upstream manufacturing segments, particularly polysilicon, wafers and solar cells.
The Production Linked Incentive (PLI) scheme has already attracted nearly $8.4 billion in investments by June 2026, according to ISMA. The industry body said every dollar of incentive had drawn around four dollars in private investment.
India’s ambition to become a global solar manufacturing hub by 2047 will depend on developing capabilities across the entire photovoltaic value chain. The ISMA projections point to significant opportunities in employment, investment, import substitution and exports. Sustained policy support, upstream manufacturing investments and a reliable domestic demand pipeline will be important in translating these projections into industrial growth.
Clean the Sky – Reservoir Solar Developments Trend Hunter
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Nigeria’s power problem has created a booming market for alternative energy, with households and businesses increasingly looking beyond the national grid to keep their lights on.
DYQUE Energy, a renewable energy solutions provider backed by the Transsion Group is looking to capture a share of that market. The company is expanding its presence in Nigeria with a broader range of residential and commercial solar solutions
Speaking during an interview at Nigeria Energy 2026, Jackie Kangfei Lu, Country Manager of DYQUE Energy, and Samson Akeju, the company’s National Sales Director, outlined its product offerings, customer financing arrangements, after-sales support strategy and expectations for the Nigerian renewable energy market.
The company, which specialises in inverters and high-voltage battery systems, is positioning itself across the residential, commercial and industrial segments, drawing on the Transsion Group’s established presence in Nigeria through brands such as TECNO, Infinix and itel.
According to Jackie, the Group’s more than 20 years of operations in Nigeria provide a foundation for building customer confidence in its energy business.
“We have more than 400 service centres across Nigeria, which enable us to provide customer support. We also offer a 10-year warranty, including five years of replacement coverage,” Jackie said.
DYQUE Energy’s portfolio includes solutions for individual households, small and medium-sized businesses, commercial facilities and large industrial operations.
Its CUBE series offers inverter capacities of 5kW, 10kW, 15kW and 25kW, with battery storage starting at 8kWh and expandable to 48kWh.
The company is also introducing its D1 residential series, designed for homes, real estate developments and smaller businesses. The range includes 5kW, 6kW, 8kW, 10kW and 12kW inverter options, supported by 9kWh battery units. Customers can connect up to six battery units, providing a maximum storage capacity of 54kWh.
Samson described the D1 residential range as a new addition to the company’s Nigerian portfolio, noting that it was being introduced to the public for the first time at the exhibition. The product is not yet available for general sale, although the company is already receiving pre-orders ahead of its expected arrival in 2027.
For larger customers, DYQUE Energy offers commercial and industrial solutions, including containerised systems. One of the systems showcased at the exhibition features a 125kW inverter and 241kWh of battery storage. Multiple units can be connected in parallel to deliver capacities of 5MW and above.
The systems can also integrate solar panels, battery storage, the national grid and diesel generators, allowing customers to combine different electricity sources based on their requirements.
Beyond its product range, DYQUE Energy is seeking to address one of the biggest barriers to renewable energy adoption: the upfront cost of installing a solar power system.
Jackie confirmed that the company has financing arrangements with partners, including Zenith Bank, allowing eligible customers to spread payments over four to five years through monthly or annual installments.
Samson explained that the arrangements generally involve an initial customer contribution of approximately 20% to 30%, with the remaining balance financed over an agreed period.
The company’s lease-to-own model typically runs for three to five years, after which customers take full ownership of the installed energy solution.
“We understand that customers should not have to break the bank to make the initial payment for an energy solution,” Samson said.
He added that the company’s approach is built around assessing customers’ energy consumption before recommending a system, rather than selling standardised packages that may not meet their actual requirements.
Depending on the customer’s existing electricity expenditure and the system installed, DYQUE Energy estimates that its solutions could reduce energy costs by about 70%.
To illustrate the potential savings, the company cited a garri-processing business in Epe, Lagos, which installed a 100kW hybrid solar system. The installation reduced the business’s daily diesel consumption from 180 litres to 60 litres, generating estimated annual savings of ₦74.46 million.
DYQUE Energy also referenced three office installations that collectively recorded more than ₦48 million in annual savings on diesel costs.
However, Samson noted that actual savings would depend on each customer’s consumption patterns and the energy solution designed for the property or business.
The company is targeting 500 commercial and residential customers in 2026, with the goal of helping them achieve combined energy cost savings of ₦30 billion.
Looking ahead, the company expects Nigeria’s renewable energy market to expand considerably as electricity costs and supply challenges encourage more households and businesses to consider alternative power sources.
Samson believes the transition could gather momentum much sooner than many industry observers expect.
“I believe three to five years may be too long a period to wait for significant changes. Within the next 24 months, we expect to see a substantial increase in the number of households and businesses transitioning to renewable energy,” he said.
For DYQUE Energy, its competitive strategy will rest on combining international experience with local operations, technical support and customer financing.
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Allianz General Insurance Company (Malaysia) Berhad (Allianz General) is encouraging households to reassess their home insurance coverage as evolving risks from floods and fire to rising replacement costs and changing home lifestyles continue to make adequate home insurance increasingly important.
— Allianz General Insurance Company (Malaysia) Berhad (Allianz General) is encouraging households to reassess their home insurance coverage as evolving risks – from floods and fire to rising replacement costs and changing home lifestyles – continue to make adequate home insurance increasingly important.
While home insurance has long been available, many still overlook the need to review whether their coverage remains relevant to the way they live today. Homes are no longer just living spaces; they are also workplaces, learning spaces and places where valuable items such as digital devices, appliances, furniture and personal belongings are kept.
“Adequate home protection goes beyond just having a policy in place. The real question is whether the coverage is still relevant to the value of the home, what’s inside it and the risks households face today,” said Allianz General Chief Retail Officer, Linda Lor. “As lifestyles change and the cost of replacing household items increases, reviewing your home insurance is essential to ensure your coverage adequately protects both your home and its contents.”
Allianz General’s Smart Home Cover is designed to provide flexible and comprehensive protection for different household needs, allowing customers to insure their home structure (under the HouseOwner component), household contents (HouseHolder) or both, making it suitable for homeowners, renters and landlords.
Depending on the selected coverage, Smart Home Cover can help protect against loss or damage caused by insured events such as fire, flood, burst pipes, lightning, burglary and other unexpected incidents. It also offers practical additional benefits including home repair and maintenance support, mortgage loan instalment protection and landlord-related protection.
To address the needs of modern homes, Smart Home Cover now also offers All Risk Solar Panel, an add-on under the HouseOwner (Building) component. All Risk Solar Panel, available starting 31 October 2026, provides coverage for accidental loss or damage to solar panels, as well as protection for damage to panels and cables caused by animals.
“Homes today are changing, and home protection must keep pace. From work-from-home equipment to solar panels, households are making significant investments in their living spaces. Smart Home Cover helps customers protect what matters while giving them the flexibility to choose coverage that fits their needs,” Linda added.
Customers who purchase or renew a Smart Home Cover Annual policy with the All Risk Solar Panel add-on under the HouseOwner (Building) component for their property can enjoy up to 30% discount on their HouseOwner (Building) coverage.
Allianz General is also running a campaign from 31 October to 31 December 2026, where customers who purchase a Smart Home Cover Annual policy with the All Risk Solar Panel add-on will receive a complimentary fire blanket, limited to 1,000 units on a first-come, first-served basis.
For greater convenience and peace of mind, Smart Home Cover is available with a Multi-Year Plan, offering three years of uninterrupted protection with a single premium payment. Customers who purchase a Smart Home Cover Multi-Year policy with a minimum gross premium of RM1,000 can receive a complimentary 2-in-1 Hotpot & Barbecue Grill Cooker, while stocks last.
Further, Smart Home Cover is one of the eligible products under the Allianz Golden 250 Campaign, which runs from 1 August to 31 December 2026. Every purchase or renewal of eligible policies during this period will be automatically entered into the draw to stand a chance to win exciting prizes, including gold wafers and e-vouchers.
Terms and conditions apply. For more information, please visit:
Allianz General Smart Home Cover
Allianz Golden 250 Campaign
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Audrain County to get battery storage, solar facilities The Mexico Ledger
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Dear EarthTalk:
What’s up with “solar windows” that generate solar electricity and remain transparent? Can this tech put a dent in our carbon emissions?
Mark Jackson, Cary, NC
Modern urban skylines are dominated by towering skyscrapers with expansive glass facades that absorb large amounts of solar heat while leaving vast surface areas unused for renewable energy generation. Traditional architectural designs treat windows as passive barriers, but this paradigm is shifting as cities search for new ways to combat climate change. By transforming transparent building skins into active power generators, urban centers can harness millions of square feet of previously wasted vertical space.
Transparent luminescent solar concentrators and transparent photovoltaic glass operate by harvesting invisible wavelengths of light, like ultraviolet and infrared, while letting visible light pass through cleanly. These advanced materials use specialized organic salts or nanoparticles embedded within glass panes to absorb non-visible solar radiation and direct it toward thin photovoltaic strips lining the frame edges.
A major advantage of solar windows over traditional rooftop panels is their ability to scale clean energy generation in densely built environments without requiring additional land. Retrofitting existing commercial towers with power-generating glass multiplies potential exponentially. As Ana Almerini, Marketing & Communications Manager at SolarReviews, argues: “Unlike traditional solar panels, solar windows can filter UV and infrared sunlight and use it to generate electricity.” This allows entire building skins to function simultaneously as architectural viewing panes and distributed power plants.
Integrating transparent solar technology into building envelopes also holds tremendous potential to cut carbon emissions, reduce reliance on fossil-fuel-powered HVAC systems, and shrink urban footprints. Buildings consume a massive share of global electricity, much of it driven by cooling loads on sunny days. As Martin Deil, Global CEO of ClearVue Technologies, notes regarding market validation: “This is a pivotal moment… This sale of our solar envelope solution confirms our commercial strategy and shows the value the market is starting to place on energy-efficient smart building solutions.”
Achieving widespread viability requires careful balancing of costs, efficiency and total optical clarity. Integrating these systems demands advanced coatings and specialized interlayer films within double- or triple-pane glass units to maintain structural thermal insulation. When modern building-integrated photovoltaics connect directly to a property’s local microgrid, they provide localized backup generation that stabilizes energy loads during peak demand hours. While efficiency metrics and production economics are still being optimized, transparent solar windows are a vital frontier for zero-net-energy cities. Harnessing the invisible spectrum of sunlight turns ordinary glass into a global warming weapon.
EarthTalk® is produced by Roddy Scheer & Doug Moss for the 501(c)3 nonprofit EarthTalk. See more at https://emagazine.com. To donate, visit https://earthtalk.org. Send questions to: question@earthtalk.org.
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Turner River solar farm, Australia
30th October 2026
By: Sheila Barradas
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Name of the Project
Turner River solar farm.
Location
Pilabara, Australia.
Project Owner/s
Fortescue.
Project Description
The project will entail the construction of a 690 MW solar farm. It forms part of Fortescue’s integrated renewable-energy ecosystem – the Pilbara Green Grid – which is being built to power the company’s Pilbara operations using renewable energy. More than one-million solar panels will be installed at Turner River.
Once completed and combined with Fortescue’s Solomon Airport (440 MW), and the Cloudbreak (190 MW) and North Star Junction (100 MW) solar farms, Fortescue will have delivered all solar generation required to achieve its Real Zero decarbonisation plan across its terrestrial iron-ore operations.
The projects will, together, generate more than 1.4 GW of renewable-energy capacity – enough to power about 500 000 Australian homes.
Potential Job Creation
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Construction started in May 2026. Turner River is expected to be completed in 2028.
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The proposal seeks to suspend the effects of a Federal Government regulation that nullified the benefit for the photovoltaic sector.
Economic Development Committee. Photo: Vinicius Loures/Chamber of Deputies
The proposal suspends the effects of a regulation from the MDIC (Ministry of Development, Industry, Trade and Services) that nullified this benefit.
According to the author of the proposal, Representative Delegado Caveira (PL-PA), the revocation of the tax incentive promoted by the Executive puts at risk R$ 20 billion in investments and almost 160 jobs in the solar energy sector.
The bill’s rapporteur, Representative Lafayette de Andrada (PL-MG), was in favor of the project, highlighting that the change affects the viability of businesses.
“The unilateral and immediate revocation of the tariff exemptions, without any transition period, produces an effect similar to an abrupt increase in import costs, burdening ongoing projects and making new ventures unfeasible,” stated the rapporteur.
Lafayette cited data from ABSOLAR (Brazilian Photovoltaic Solar Energy Association) indicating that the cut in tax exemption directly affects 5,78 GW of installed capacity in photovoltaic projects.
The report also emphasizes that solar energy plays a central role in the Brazilian electricity matrix and in meeting the goals of the Paris Agreement.
The proposal will still be analyzed by the Finance and Taxation Committee. Following that, it will be considered by the full Chamber of Deputies. To definitively suspend the effects of the rule, the bill needs to be approved by both the Chamber of Deputies and the Senate.
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all the content of Canal Solar is protected by copyright law, and partial or total reproduction of this site in any medium is expressly prohibited. If you are interested in collaborating or reusing part of our material, please contact us by email: redacao@canalsolar.com.br.
He worked at Correio Popular and Rádio Trianon. He has experience in podcast production, radio programs, interviews and reporting. Has been following the solar sector since 2020.
Comments should be respectful and contribute to a healthy debate. Offensive comments may be removed. The opinions expressed here are those of the authors and do not necessarily reflect the views of the author. Canal Solar.
Brazil ranks eighth on the list with 509 TWh, according to Worldometer
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Tuesday Preopening Market Update with Dave Lanning
Ben Hale: Oklahoma Cattle Market Faces Pressure After Sharp Futures Drop, but Rebound Expected
Nov 03
The 2026 Oklahoma Solar Summit is set to tackle one of the most pressing questions facing modern landowners: how to balance growing renewable energy infrastructure with active agricultural production. Speaking with Farm Director KC Sheperd, Clay Pope highlighted details of the upcoming event, which brings together ranchers, energy developers, and policymakers to explore practical solutions—chiefly agrivoltaics and livestock grazing.
Sponsored by The Nature Conservancy, the summit will take place November 5–6 at the Oklahoma State University Alumni Center in Stillwater.
While states in other regions often rely on sheep or smaller ruminants to manage vegetation around solar arrays, Pope emphasized that Oklahoma’s agricultural landscape demands a cattle-centric approach.
“Clearly if you’re going to be grazing animals, cattle are the low-hanging fruit,” Pope explained. “That’s where the focus needs to be, and that’s a lot of what we’re going to discuss in Stillwater.”
The sessions will examine the mechanics of agrivoltaics—combining agricultural production and solar power generation on the same acreage. Key topics include:
With landmen actively approaching Oklahoma producers about energy leases, Pope stressed the importance of understanding available options before signing agreements. Rather than viewing solar development as an all-or-nothing proposition that takes productive land entirely out of commission, the summit aims to demonstrate how dual-use leases can sustain rural operations.
“A lot of folks, when they see those solar leases, think we’ll just go ahead and lease the land and call it a day,” Pope noted. “If you want to maintain some sort of production on that operation… we think it’s something worth having a discussion on and seeing if we can split that difference.”
Attendees will include:
The summit program kicks off Thursday, November 5, (by invitation only on the 5th) with the main sessions concluding early in the afternoon on Friday, November 6.
Early bird registration is currently open for a limited window. Landowners and stakeholders interested in attending can reserve their seats at oklahomasolarsummit.com or by contacting The Nature Conservancy in Oklahoma.
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Dallas Cowboys legend Emmitt Smith is hitting back at those who claim he and his business partners were involved in a $2.5 million fraud scheme. He is also asking a judge to sanction the people who made the claims about his involvement in the alleged scam.
Emmitt Smith, the NFL’s all-time leading rusher, was sued in August by a Native American investment group that has claimed that he and his business partners embezzled hundreds of thousands of dollars meant for a solar energy project in Texas.
The Hall of Famer wants the case dismissed and wants sanctions imposed on the investment group and their attorneys for comparing the situation to a Ponzi scheme.
Smith is accused of defrauding a Native American investment group out of $2.5 million in connection with a proposed solar farm called Project Exodus.
Kituwah LLC, the investment arm of the Eastern Band of Cherokee Indians, claims that Emmitt Smith, his business partner David Mosley, and their company, 4 13 Solutions Inc., convinced them to provide a $2.5 million loan in September 2023 to develop the solar farm. Instead, the project never materialized, and Kituwah claims it has “not recovered a penny” of its money.
The lawsuit claims the funding was misdirected and used to pay off another firm, Wilson Holdings, rather than fund the development of a solar farm in Texas. “It basically became a Ponzi scheme,” said Kituwah.
According to Front Office Sports, Emmitt Smith and his business partners disagree. They filed a response to the lawsuit on October 9, arguing that the accusations are false.
Smith’s lawyers claim that everyone involved understood that it was a risky plan that relied on obtaining further funding from the U.S. Department of Energy. “They embarked upon an ambitious scheme, which did not deliver,” the filing claims.
Emmitt Smith and his business partners are asking a Delaware court to dismiss the lawsuit permanently, award them legal costs, and impose sanctions on Kituwah and its attorneys.
“The reference to a ‘Ponzi scheme‘ is unsupported by any facts and made in bad faith,” the filing states. “Plaintiff and its counsel should be sanctioned for knowingly making a false statement that accuses the 4 13 Defendants of criminal behavior.”
Those sanctions could include fines or require Kituwah to cover some of Emmitt Smith’s legal expenses.
Meanwhile, as all of this was going on, Emmitt Smith also received some positive attention. On October 31, he was inducted into the Florida-Georgia Hall of Fame alongside former Florida Gators and Pittsburgh Steelers star Maurkice Pouncey.
Waaree Solar Americas Inc. (WSA), the U.S. manufacturing arm of India’s Waaree Energies Limited, has initiated commercial operations on two new solar module lines at its facility in Brookshire, Texas.
Each new line adds 800 MW of annual capacity, effectively doubling the Texas plant’s total output from 1.6 GW to 3.2 GW. Commercial production officially started on October 29, 2026, following board expansion approval granted in April 2025.
The Brookshire expansion is central to the group’s “Make in U.S. for U.S.” domestic supply strategy. Alongside an ongoing upgrade at its Arizona module plant, which is expanding from 1 GW to 1.6 GW, Waaree is targeting an aggregate U.S. manufacturing capacity of 4.8 GW during FY27.
Revenue from Waaree’s U.S. manufacturing operations increased to $154.8 million in Q2 FY27, up from $87.1 million in the corresponding prior-year period. U.S. domestic supply contracts now represent 43.8% of Waaree’s total consolidated order book of $7.05 billion, growing from 36% in Q1 FY27. Across all global markets, Waaree’s cumulative module backlog stands above 25 GW.
“Shifting trade policy has strengthened the case for local manufacturing, and that is exactly where we have invested,” said Sunil Rathi, Director at Waaree Group. “With Brookshire now at 3.2 GW and Arizona expanding, we are serving American customers from American factories, and our U.S. order book continues to grow every quarter.”
For Q2 FY27, Waaree Energies reported a 23.9% year-on-year increase in consolidated revenue from operations, reaching $895 million.
Alongside its U.S. manufacturing investments, the company is executing a dual-track strategy to scale backward integration in India. Waaree plans to increase domestic cell production capacity from 5.4 GW to 15.4 GW in FY27, while laying the groundwork for a 10 GW ingot and wafer manufacturing plant targeted for FY28 operational readiness.
According to data from the Solar Energy Industries Association (SEIA), the broader U.S. solar and storage manufacturing sector has achieved substantial growth, reaching an operational U.S. module manufacturing capacity of 75.3 GWdc and an operational battery cell manufacturing capacity of 62.4 GWh. SEIA reports that the industry has attracted $41.9 billion in cumulative announced investments and supports a potential total of 74,626 jobs across the domestic supply chain.
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As the nights draw in, temperatures fall and the British winter arrives, it’s reasonable to wonder how effective solar panels are during the darker, colder months.
It is important to remember that solar panels need sunlight, not warmth, to generate electricity. Days are shorter and nights longer in winter, so there are fewer hours of potential sunlight exposure per day. But solar panels still work, generating electricity and lowering your household energy bills.
Shorter days, a lower sun and heavier cloud cover mean a solar PV system generates less electricity than it does during sunnier spring and summer. But cold temperatures are not the problem. In fact, the lack of hot days in these months can actually help solar cells operate more efficiently.
So, do solar panels work in winter? Yes, but homeowners should expect a pronounced seasonal drop in output. Below, we explain how much electricity solar panels can generate during the UK’s darker months, how cold and snow affect performance, and what you can do to get more from your system throughout the year.
Yes. Solar panels convert sunlight into electricity using PV cells, which respond to light rather than temperature. Cold conditions can actually improve panel efficiency, since particularly hot days can cause efficiency to fall. The challenge during winter months is the reduction in daily hours of sunlight, and the sun’s lower position in the sky. A typical December day in the UK has around eight hours of daylight – far less than the 16 or so hours seen in midsummer – so overall solar energy production drops.
Even so, solar panels remain active whenever light hits them. They generate less during winter than in the summer, but they certainly don’t stop.
Electricity generation can fall to around 25 to 30 per cent of summer levels during the darkest winter months, depending on your location and the specifics of your roof and solar system. Data from the European Commission’s PVGIS solar calculator, and interpreted by Home Solar Power Systems, shows that December and January are typically the least productive months for solar panels in the UK.
Fitted to an ideal roof (central England, south-facing, 35-degree angle), a typical 4kWp system could generate 135 kWh in December and 147 kWh in January, compared to 486 kWh in July and 433 kWh in August. Energy generation improves quickly after winter, with the same 4kWp system generating 348 kWh in March, more than double the January figure.
Factors that influence winter output include:
While generation is lower, it’s still significant enough to reduce grid reliance, especially for households with efficient appliances or those who are home during daylight hours.
Read more: Best solar panels, compared
Solar panels can still generate electricity in winter conditions, but if the surface is fully covered in snow, output will drop sharply because very little light reaches the solar cells. A thin dusting isn’t usually a big issue, especially if sunlight can still pass through or the snow slides off quickly, but a thick layer will effectively “shade” the panel until it clears.
The good news is that in most parts of the UK, heavy, long-lasting snowfall is relatively rare, and panels are typically installed at an angle, which helps snow slip off once temperatures rise slightly. Dark panels can also warm up a little in sunlight, encouraging snow to melt and slide. If your system is partially covered, you may still see some generation from any exposed areas; however, overall output will be much lower than normal.
If snow does settle, it’s safest to let it clear naturally. Climbing on the roof or trying to scrape panels can be dangerous and may damage the glass, seals or mounting system, potentially affecting performance or warranties. If you can safely clear snow from the ground using a long, soft brush (without applying pressure), some homeowners do, but for most people the sensible approach is to wait for the snow to thaw.
Freezing temperatures aren’t necessarily a bad thing for solar panels. In fact, they generally operate more efficiently in cooler weather, and can suffer slightly in the peak of summer, because higher temperatures reduce solar panels’ ability to convert sunlight into electricity. A crisp, clear winter day can be great news for solar panels, but shorter daylight hours and the sun’s lower position in the sky mean total output will still be much lower than in the summer.
As for concerns about damage, solar panels are designed to withstand sub-zero temperatures, so freezing weather shouldn’t cause any problems for a properly installed system.
Read more: Are Octopus solar panels worth it?
While you can’t control the weather, you can ensure your system works as efficiently as possible.
Yes. Winter generation is only one part of the annual production cycle, and solar panels should be assessed on how much electricity they generate across the entire year, rather than during the darkest months alone.
When you combine this with falling installation costs, energy bill savings and payments from the Smart Export Guarantee, solar remains financially rewarding for most suitable homes.
Solar panels also provide longer‑term protection against rising energy prices. Even modest winter output reduces your dependence on grid electricity at the most expensive time of year.
Overall, the key takeaway is that solar panels don’t go into hibernation when the temperatures drop. They continue generating electricity throughout winter, though output naturally falls compared with the height of summer. With the right system design, maintenance and – ideally – a battery, UK homeowners can still benefit from winter solar generation and enjoy meaningful savings across the year.
If you’re considering a new system, comparing quotes and understanding your home’s suitability will give you the most accurate picture of expected seasonal performance.
In simple terms, UK solar panels generate the bulk of their electricity between late spring and early autumn, when the days are longest and the sun is highest in the sky. In winter, shorter daylight hours and lower light levels mean generation can fall significantly, even if panels are working perfectly. That seasonal swing is normal, and it’s why summer often feels like “free electricity season”, while winter becomes more about making a helpful contribution rather than covering most of your home’s needs.
What that means for bills depends on how you use energy. In summer, longer daylight hours give you more opportunities to run high-energy appliances such as washing machines, dishwashers and tumble dryers using electricity generated by your panels.
If you’re on a Smart Export Guarantee (SEG) tariff, you may also export more surplus electricity, earning credit, but the bigger financial win often comes from using more of your own generation rather than exporting it for a lower rate.
In winter, you’ll usually import more electricity from the grid because solar production is lower and household demand is typically higher (more lighting, more time indoors, and for some homes, electric heating). Even so, you can still save money, particularly on bright winter days when panels can cover background electricity demands like fridges, wifi routers and standby power – and any daytime cooking or laundry you can shift to daylight hours helps.
If you have a battery, the seasonal contrast can feel less stark. In summer, you may store more surplus solar to use later in the day, while in winter, you may use the battery more for tariff-shifting (charging the battery off-peak then using it at peak times) because there’s less solar surplus to store. Either way, it’s worth thinking of solar as a year-round reducer of grid usage, with the biggest bill impact typically arriving in summer, and the panels acting in a supporting role through winter.
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Energies Media
Geese used to be the only tenants on this stretch of mowed grass.
Now long rows of tilting panels catch the Canterbury Plains light where the birds once grazed.
The fence line still runs next to a live taxiway.
Jets still pass low overhead on approach.
But underneath, the ground itself has changed jobs entirely.
So how did a safety buffer built to keep wildlife away from engines end up generating electricity instead?
Airports sit on enormous tracts of flat, open, unshaded land that exists for one reason: keeping obstructions away from aircraft. That same requirement, no tall structures, no trees, clear sightlines, happens to describe a near perfect solar site. Runway buffer zones cannot host buildings or towers, but low profile panel rows sitting a few feet off the ground pose no hazard to approach paths or radar.
So the land that airports have always treated as dead space becomes revenue generating ground. Christchurch Airport’s buffer acreage had sat largely idle for decades, used only to keep geese and other wildlife at a safe distance from engines.
Converting it into generating capacity required no new land purchase and no competition with farmland or housing. That logic is why airport solar has quietly spread at airports from Kochi to Denver, repeating wherever fenced, graded land sits next to a runway that needs backup power anyway.
The project, named Kōwhai Park after the native tree, was first floated in late 2021 and took most of five years to reach switch on. Construction crews worked around live runway operations, threading cabling trenches and panel foundations across a site where jet traffic never stopped overhead.
The scale is substantial for a single site: roughly 158,000 panels spread across the 740 acre buffer, oriented to track the sun through Canterbury’s long summer days and short winter ones alike.
That panel count puts Kōwhai Park well ahead of anything previously built on the South Island, a region built on hydro rather than solar for its grid supply. Finance for the build was locked in back in August 2024, with commercial operation originally expected by mid 2026 before slipping into October.
Commissioning is the stage where a finished solar farm proves it works, not just that it is built. Officials confirmed the commission date as October 15, 2026, the point at which Kōwhai Park’s output began counting against the regional grid rather than sitting idle behind a substation fence.
That date matters more than the panel count, because a solar farm that cannot clear grid compliance testing never earns a single dollar from the electricity it produces.
Energy retailer Contact Energy, which developed the site, has officially opened the farm and described it as the South Island’s biggest solar project, developed through its joint venture with a global solar developer. The airport itself framed the project around easing pressure on a grid long dependent on hydro storage that fluctuates with rainfall and snowmelt.
None of that changes what happened on the ground in mid October: a buffer zone that had generated nothing for decades began exporting measurable megawatt hours to homes well beyond the airport fence.
Operating a solar farm beside active runways is not the same as operating one in an open paddock. Every row of panels had to clear glare assessments proving reflected light would not blind pilots on approach, and maintenance crews now work under flight path restrictions that a conventional solar farm, similar to the tracking array over crops at Chatfield Farms, never has to navigate.
Wildlife management adds a second layer. The grass buffer existed to keep birds at a distance from engines, and solar infrastructure has to coexist with that mowing and deterrence regime rather than override it.
Crews cannot simply let vegetation grow tall between rows the way a rural solar farm might, because long grass draws the same birds the buffer zone was built to repel. Even the project’s grid role carries a caveat: a single solar farm, however large for its region, supplements a system still run largely by dams and lake storage rather than replacing it.
Grid operators elsewhere have used the same expedited approach seen in battery storage approvals to move fast once a project clears its technical hurdles.
Kōwhai Park’s completion gives New Zealand’s grid planners a working example of what idle airport acreage can become once the safety case is solved rather than merely considered. The hardest part, proving panels and runways can share a fence line without compromising either, is now a finished fact.
What happens over the next full year of generation will matter more than the opening week headlines. Canterbury’s long summer daylight hours should push output toward the upper end of projections, but the real test is how the array performs through a South Island winter, when hydro storage typically carries more of the regional load anyway.
For now, the simplest fact stands on its own: land once mowed purely to keep geese away from jet engines is now feeding a regional grid, and the airport did not have to buy an acre to make it happen.
Hugo is an engineer with strong technical expertise. Multilingual from an early age, his writing combines technical clarity with a strong interest in science and energy.
Hugo is an engineer with strong technical expertise. Multilingual from an early age, his writing combines technical clarity with a strong interest in science and energy.
Hugo is an engineer with strong technical expertise. Multilingual from an early age, his writing combines technical clarity with a strong interest in science and energy.
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Posted by Brad Randall | Nov 3, 2026 | COMMUNITIES, Infrastructure, Multifamily, TECHNOLOGY, Trends
By: Lori Reeves, RETTC, and Valerie M. Sargent, Broadband Communities
November 3, 2026
Balcony solar is moving from a niche European product to a practical U.S. housing issue. These compact photovoltaic systems typically combine one or more panels with a microinverter and connect through a standard household receptacle. Rather than sending significant power to the grid, they are designed to offset electricity being used inside the dwelling at that moment. For apartment residents who cannot control a roof, the appeal is straightforward: a smaller purchase, a simpler setup and a chance to reduce utility costs with equipment that can move with them.
California’s SB 868, chaptered on September 30, 2026, creates a temporary streamlined pathway for qualifying portable solar generation devices. Beginning January 1, 2027, covered systems up to 1,200 watts that meet specified certification, along with electrical and outage-safety requirements, are exempt from utility interconnection requirements through January 1, 2030. Utilities may not require advance approval or device-related fees, although they may require a simple online notice with device details. The law primarily removes utility barriers; it does not give residents unlimited authority to alter or attach equipment to rental property.
New Jersey’s Garden State Balcony Solar Act, S2368/A4836, takes a broader property-rights approach when its operative provisions take effect March 1, 2027. It creates a statewide pathway for qualifying plug-in devices of up to 1,200 watts, removes specified interconnection and approval requirements, and prevents municipalities, landlords, condominium associations, and similar entities from imposing blanket prohibitions. Property owners and associations may still apply reasonable restrictions tied to safety, size, and placement.
California and New Jersey are part of a broader movement. As of October 2026, 10 states have enacted legislation addressing plug-in or balcony solar: Utah, Colorado, Connecticut, Maine, Maryland, New Hampshire, Vermont, Virginia, New Jersey, and California. Utah led the way in 2025, with nine additional states following in 2026. The laws differ, particularly in whether they remove utility barriers or also limit property restrictions. Additional legislation is being considered in other states.
Apartment operators have seen a similar property-rights issue before. The Federal Communications Commission’s Over-the-Air Reception Devices rule, known as OTARD, generally prevents landlords, associations, and local governments from enforcing restrictions that impair the installation, maintenance, or use of covered television, satellite, and fixed-wireless antennas in areas under a resident’s exclusive use or control. Since 1999, that protection has expressly reached rental balconies and patios. It does not ordinarily extend to shared roofs, exterior walls, or other common areas.
OTARD does not cover solar panels, so it is not an independent legal basis for installing a balcony solar device. The parallel is in the regulatory framework. OTARD rejects blanket bans and requirements that create unreasonable delay or cost, while preserving narrowly tailored restrictions for legitimate safety and historic-preservation concerns.
California and New Jersey are now addressing similar questions of resident rights and property restrictions, although their laws provide different levels of protection. For managers, the lesson from decades of OTARD disputes is practical: policies work best when they regulate the installation rather than prohibit the technology. A rule tied to secure mounting, fire safety, structural protection or the boundary of a private balcony is easier to defend than a blanket ban or an open-ended approval process.
As with satellite dishes, the boundaries of a resident’s private space and the rules governing exterior installations matter. However, the applicable protections differ by technology and state. Property managers should evaluate proposed solar installations under the relevant state law, building codes, and safety requirements rather than assuming OTARD’s limitations apply directly.
The first challenge is policy. A lease that simply bans every solar device may be difficult to enforce in New Jersey once the law takes effect, while California managers still need to distinguish utility permission from property permission. A better approach is working with local counsel to develop a state/locale-specific, device-specific addendum addressing placement, mounting, electrical connections, required documentation, and removal.
Safety and building operations are the larger concern. Managers should not assume that every product marketed online qualifies under state law. Communities will need a repeatable way to confirm product certification, manufacturer instructions, secure mounting, cord routing, receptacle condition, and any required utility notice.
Some considerations housing operators may want to weigh is to ensure panels not obstruct exits, fire access, sprinklers, drainage, façade maintenance, or the safe use of balconies. Other considerations for counsel should be addressing high winds, falling-object risk, and penetrations into railings or exterior walls.
Managers should coordinate early with ownership, counsel, insurers, fire-safety professionals, and electrical contractors. The goal is not to create an approval process that conflicts with state law, but to establish neutral, consistently applied rules that protect the building and its residents.
For residents, balcony solar offers a way to reduce electricity costs without a rooftop installation. However, savings depend on orientation, shade, weather, panel size, and electricity consumption during generating hours. These devices generally offset on-site consumption rather than producing traditional net-metering credits.
Residents may also underestimate installation requirements. Products must meet applicable safety standards and be compatible with the dwelling’s electrical system. Improvised adapters, damaged receptacles, and unsecured panels create risks that property policies should address.
Affordability is top of mind for renters and housing providers alike. Emerging technologies, like balcony solar, should be guided by public policy and operational plans that recognize that safety and affordability are not competing, but can be complementary. Balcony solar changes the energy conversation in multifamily housing because it puts a small generating asset directly in a resident’s hands. California’s law removes major utility barriers; New Jersey goes further by limiting blanket restrictions from landlords and local entities.
OTARD’s history offers a useful warning and a workable model: clearly define covered devices and exclusive-use areas, avoid blanket prohibitions and burdensome approval procedures, and reserve narrowly tailored authority for genuine safety and property-protection concerns.
For apartment managers, the best response is neither an automatic “no” nor an uncritical “yes.” It is a clear, safety-based process that respects resident rights, protects the property and can adapt as product standards and implementing rules mature.
Lori Reeves is senior advisor for the Real Estate Technology & Transformation Center (RETTC) and can be reached at lreeves@rettc.org. Valerie M. Sargent is a multifamily speaker, trainer and executive consultant, and is the multifamily news correspondent for Broadband Communities. Contact her website, seen here. For more information, visit http://www.nmhc.org or https://rettc.org/.
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Polycab India’s solar inverter sales have emerged as a primary growth catalyst for the company, significantly boosting its fast-moving electrical goods (FMEG) segment. During the earnings conference call for Q2 FY27, corporate management highlighted that solar products have become the largest category within the company’s broader FMEG portfolio. This momentum is heavily underpinned by national initiatives such as the PM Surya Ghar: Muft Bijli Yojana, various state-level renewable support programmes, and an accelerating consumer shift toward sustainable energy solutions across India.
In terms of operational structure, Polycab currently operates its solar inverter business predominantly through a trading model rather than in-house manufacturing, though management remains open to exploring manufacturing opportunities if market conditions prove attractive. The solar segment’s robust performance helped Polycab achieve a 124% year-on-year surge in FMEG revenue for Q2 FY27, while the segment crossed a major profitability milestone by reporting an EBIT margin of 10.1%. While standalone revenue figures for the solar division were not disclosed, the company has a substantial historical footprint, having entered the solar sector in 2012 with DC cables before launching on-grid inverters in 2016. To date, Polycab has supplied a cumulative 6 GW of inverter capacity spanning over 11 lakh units, with offerings currently ranging from 2 kW to 350 kW.
For EPC contractors and solar developers operating in the Indian renewable energy market, the rapid commercial scaling of robust inverter suppliers signals a maturing supply chain for decentralized and rooftop solar infrastructure. The availability of reliable, diverse inverter capacities ranging from residential sizes to commercial scales ensures smoother execution of distributed solar projects. Furthermore, Polycab’s strategic roadmap—which includes introducing a 500 kW utility-scale inverter platform and expanding into hybrid inverters and battery energy storage systems (BESS)—provides developers with expanded domestic procurement options for future-proofing grid-tied and hybrid installations.
Looking ahead, Polycab expects the solar inverter category to continuously increase its proportional contribution to the overall corporate portfolio as national rooftop solar adoption deepens. The company is actively preparing to roll out its advanced 500 kW utility-scale inverter platform alongside enhanced hybrid and storage solutions in the coming year. As India’s renewable energy sector accelerates toward ambitious clean energy targets, equipment suppliers and component traders are positioning themselves to capture sustained demand from both residential rooftop expansions and evolving commercial and industrial (C&I) microgrid applications.
Aditya Pathre is the Founder of MVApulse and covers India’s renewable energy sector, including solar, wind, battery energy storage systems (BESS), green hydrogen, transmission infrastructure, renewable energy policy and competitive bidding. His reporting focuses on project developments, market trends, government policies and energy transition across India.
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MVApulse is an independent publication covering India’s renewable energy sector including solar, wind, BESS, transmission, green hydrogen, EPC and power markets.
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The India solar energy market is no longer a niche policy play; it sits at the centre of the country's power investment case. According to IMARC Group, the market grew from USD 30.03 Billion in 2025 to USD 41.39 Billion in 2026 and is projected to reach USD 538.91 Billion by 2034, expanding at a CAGR of 37.82% during 2026-2034. For an investor or industrial group weighing entry, the strategic question has shifted from whether to enter to which layer of the value chain to own: module manufacturing, engineering, procurement and construction (EPC), or independent power production.
Three forces explain the pace of expansion. India's installed solar capacity surpassed 132.85 GW by November 2025 according to the Ministry of New and Renewable Energy, giving the sector a demonstrable execution record rather than a pipeline promise. Policy support through PM Surya Ghar: Muft Bijli Yojana, falling module prices, and rising commercial and industrial demand for open-access clean power have widened the buyer base beyond state utilities to factories, warehouses, IT campuses and households. Each of these buyer groups consumes a different product, which is precisely why entry strategy cannot be generic.
The dominant theme is vertical integration. Waaree Energies Ltd. had its Chikhli plant added to MNRE's ALMM list in December 2025 with 16.444 GW of approved capacity, taking total Indian module capacity to 20.17 GW, while Adani Green Energy Limited activated 1,000 MW of solar at the Khavda park in Gujarat in March 2024. Companies that control manufacturing, execution and generation together are compressing cost and securing supply in ways that pure-play operators cannot match.
This blog compares the three credible entry routes into the India solar energy market, weighs their capital intensity, margin structure, policy exposure and execution risk, and sets out which route suits which type of entrant.
Key Takeaways
According to IMARC Group, the India solar energy market expanded from USD 30.03 Billion in 2025 to an estimated USD 41.39 Billion in 2026 and is forecast to reach USD 538.91 Billion by 2034, registering a CAGR of 37.82% during 2026-2034. That trajectory implies more than USD 500 Billion of cumulative market value added over the forecast window, and it matters for entrants because the growth is spread across deployment types, application segments and states rather than concentrated in a single buyer. The leading segments are:
Read together, these splits function as a map of entry routes: the ground-mounted and utility-scale weight points toward generation assets, the rooftop and residential weight points toward distribution and installation, and the manufacturing capacity clustered in the west points toward component supply. An entrant that misreads its own strengths against this structure will find itself competing in the most crowded layer of the chain.
The last two years have delivered a steady stream of capacity additions, funding events and policy refinements that together define the competitive tempo of the sector:
The pattern is consistent: capital is flowing toward scale, and scale is increasingly defined by integration across manufacturing and generation rather than by presence in a single activity.
Three structural shifts will determine which entry route offers the most durable returns over the forecast period.
1. Domestic Cell and Module Manufacturing Scale-Up
Manufacturing has become the most policy-protected layer of the value chain, and also the most capital-hungry. Under the Production Linked Incentive scheme for high-efficiency solar PV modules, domestic capacity has expanded at a pace that would have seemed implausible five years ago: MNRE data shows India added around 81 GW of ALMM List-I module capacity in calendar year 2025, nearly double the 2024 additions, taking total listed capacity to roughly 144 GW. SolarPower Europe has estimated that India's ability to produce PV modules could rise from 80 GW in 2025 to 160 GW by 2030.
The strategic consequence is a shift in bargaining power. When listed module capacity is several times annual domestic demand, purely assembly-based entrants lose pricing power and must compete on cell integration, technology choice (TOPCon and heterojunction replacing mono PERC) or export orientation. The March 2026 move to widen mandatory sourcing under the upstream solar policy reinforces this direction by pushing value creation toward wafers, ingots and polysilicon. For a new manufacturer, the entry ticket is now an integrated cell line, not a module assembly shed.
Funding conditions have improved in parallel. Record private investment into Indian solar manufacturers in 2026 suggests that equity is available for credible integrated plans, though it is being allocated selectively to promoters with offtake visibility.
2. Solar-Plus-Storage and Round-the-Clock Tenders
Procurement is moving from plain energy to firm, dispatchable renewable supply. Central agencies are auctioning Round-the-Clock and Firm and Dispatchable Renewable Energy contracts, and hybrid tenders combining solar with wind and battery storage are becoming a standard route to offtake. This changes the economics of power production: a developer now needs to price storage, forecast generation and manage dispatch, not simply sell every unit generated during daylight hours.
The commercial signal is already visible in company portfolios. ReNew's 1.1 GWh of battery energy storage within an approximately 18.5 GW portfolio as of September 2025 shows that storage is being embedded rather than bolted on. Falling lithium iron phosphate cell prices and dedicated state storage tenders are making the model bankable, while cloud-based forecasting and AI-driven operations tools support the dispatch commitments these contracts require. For an entrant considering independent power production, the practical implication is that the minimum viable capability set now includes storage sizing and dispatch optimisation alongside module procurement and land aggregation.
3. Commercial and Industrial Open-Access Adoption
The commercial and industrial segment's 36.1% share in 2025 is not a statistical artefact; it reflects a durable change in how Indian businesses buy electricity. State-level open-access reforms, group captive structures and third-party power purchase agreements allow factories, warehouses, IT parks and data centre campuses to contract solar power directly, locking in tariffs against rising grid rates and meeting listed-company sustainability commitments.
This is the segment where entry barriers are lowest and margin differentiation is highest. A C&I-focused entrant does not need a utility-scale land bank or a multi-year track record in central tenders; it needs rooftop or ground-mount engineering capability, credit assessment skills for corporate offtakers, and financing structures that work for a single factory or a cluster of units. The segment also rewards service quality, because corporate buyers increasingly negotiate availability guarantees and monitoring commitments alongside the tariff. For EPC firms and rooftop integrators, this is the natural first market to build a reference base before moving into utility-scale work.
Geography in the India solar energy market is not neutral. Irradiance, land availability, state policy and industrial demand together produce four distinct regional markets, each with a different entry logic.
West India leads with a 33.8% share in 2025, driven by Gujarat's Khavda Renewable Energy Park, Maharashtra's industrial corridor demand and Madhya Pradesh's competitive utility-scale auctions. The region also hosts a substantial share of India's solar module manufacturing footprint, which creates a deep ecosystem advantage: component suppliers, EPC contractors and skilled labour are all concentrated there. An entrant choosing manufacturing and locating in Gujarat or Maharashtra gains proximity to both suppliers and the largest concentration of utility-scale and C&I demand.
South India at 27.6% is the most commercially sophisticated market. Karnataka and Tamil Nadu operate progressive open-access frameworks, Telangana and Kerala have large rooftop programmes, and Andhra Pradesh continues to run utility-scale auctions. For a C&I-focused entrant or an EPC business targeting corporate offtakers, the south offers the clearest contract structures and the most experienced buyer base.
North India at 24.5% is the utility-scale heartland, with large solar parks, central agency procurement, expanding residential rooftop adoption and agricultural solarisation. Rajasthan's land availability and irradiance make it indispensable for generation assets, although transmission evacuation remains the binding constraint on project schedules.
East India at 14.1% is the smallest region but the fastest growing, with emerging industrial corridors, expanding rooftop awareness and a policy focus on rural electrification through decentralised solar. For a first-time entrant with limited capital, eastern states offer lower competition and a chance to build installer networks and distribution reach before national players consolidate the region.
The India solar energy market is moderately fragmented, with vertically integrated developers and module manufacturers leading project pipelines while specialised EPCs and rooftop integrators serve regional and segmental niches. Land-bank depth, manufacturing scale and execution speed form the core competitive moats, and the top five players hold a meaningful share of both operating capacity and module supply.
Barriers to entry are uneven across routes. Utility-scale generation demands high capital, a multi-year tender track record and land aggregation capability. Module manufacturing requires technology selection risk appetite and access to cells or wafers. EPC and rooftop integration require the lowest upfront capital but the thinnest margins and the greatest dependence on installer quality and working capital discipline. Consolidation is intensifying through acquisitions of operating assets and vertical integration into manufacturing, which means a new entrant should assume that the window for establishing a stand-alone position is narrowing.
Government policy has become a primary market force, shaping demand, pricing and the terms of competition. Key frameworks include:
On the constraining side, several structural risks persist:
The forward path is anchored at USD 149.33 Billion in 2030 and USD 538.91 Billion by 2034, from a base of USD 41.39 Billion in 2026, with the market compounding at 37.82% across the period. That is not a straight-line projection of current activity; it assumes continued module and storage cost declines, the scaling of Round-the-Clock and hybrid contracts, sustained residential rooftop growth under PM Surya Ghar, and new demand from green hydrogen and industrial decarbonisation.
The composition of growth will matter more than the headline number for entry decisions. Rooftop deployment at 41.95% and the residential application at 29.7% are each expected to expand faster than the overall market CAGR, which favours entrants positioned in distribution, financing and installation rather than in plain module assembly. Commercial and industrial open-access solar is also expected to outpace the broader market, reinforcing the case for service-led entry. East India at 14.1% and tier-2 cities represent the least contested geographies, while floating solar, agrivoltaics and green hydrogen-linked capacity define the frontier sub-segments.
By 2034, solar is expected to anchor a significant share of India's electricity generation mix, with battery storage integration becoming standard for new utility-scale projects. Vertically integrated developers and manufacturers are likely to consolidate further. For an entrant, the practical reading is that the market will be large enough to accommodate new capacity, but only for players whose chosen route matches a capability they can defend by 2030.
There is no single correct entry route into the India solar energy market, but there is a correct sequence of questions. Manufacturing suits entrants with technology depth, patient capital and the ability to secure cells or wafers; the policy shield is real, but so is the margin pressure implied by roughly 144 GW of listed module capacity against domestic demand. EPC and rooftop integration suit entrants with execution discipline, local networks and working capital management; they demand the least upfront capital and benefit most directly from the 41.95% rooftop share and the residential segment growing above the market rate. Independent power production suits entrants with balance-sheet strength, land aggregation capability and appetite for contract structuring; it offers the most durable cash flows but the longest lead times and the greatest exposure to discom payment behaviour and transmission readiness.
The market's structural direction favours integration. Companies that pair manufacturing with EPC, or generation with storage, are controlling cost and supply in ways that single-activity players cannot replicate, and the leading players have already built that architecture. A new entrant should therefore treat its first route as a beachhead rather than a final position: enter where the capability advantage is sharpest, build a reference base, then extend along the value chain as capital and track record permit.
With the market forecast to reach USD 538.91 Billion by 2034, at a CAGR of 37.82%, the opportunity is wide enough to absorb new participants across all three routes. What it will not absorb is undifferentiated capacity in the most crowded layer of the chain. The disciplined entry decision, matched to policy exposure, regional demand and defensible capability, remains the single largest determinant of returns.
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Every solar power system needs an inverter to convert the direct current produced by solar panels into alternating current that homes, businesses, and the grid can use.
Sodium-ion batteries are emerging as a practical complement to lithium-ion technology. They work on the same principle, shuttling ions between a cathode and an anode, but use sodium, which is abundant, inexpensive, and available within India, in place of lithium.
Few industries in India have scaled as quickly as solar manufacturing. Backed by ambitious renewable energy targets, a rooftop programme for households, import duties on foreign modules, and the Approved List of Models and Manufacturers (ALMM), domestic module capacity has multiplied in just a few years.
Setting up an Electrical Panel Manufacturing Plant in India is a fabrication-and-assembly venture powered by heavy grid modernisation, a fast-growing renewable-energy build-out, rising industrial and commercial construction, and the spread of automation across factories and buildings.
Saudi Arabia has turned its power transition into one of the world's largest procurement programmes, and international developers, lenders, and equipment makers are following the tenders.
Setting up a Battery Manufacturing Plant in India is a high-demand, energy-driven venture, powered by the country's booming automotive sector, huge power-backup market, and the fast-growing shift to electric vehicles and renewable storage.
Setting up a Liquefied Natural Gas (LNG) Manufacturing Plant in India is a capital-intensive, strategically important venture, powered by the country's push toward a gas-based economy, the shift to cleaner fuels in transport and industry, and rising demand for LNG as a truck, bus, and industrial fuel.
The India carbon credit market is moving from a voluntary, project-by-project trade into a regulated national system with binding targets, a central registry, and exchange-based price discovery. According to IMARC Group, the market was valued at USD 33.69 Billion in 2025, grew to USD 44.42 Billion in 2026, and is projected to reach USD 405.47 Billion by 2034, expanding at a CAGR of 31.84% (2026–2034).
Setting up a Syngas Production Plant in India is a capital-intensive but strategically valuable venture, driven by the country's push for cleaner industrial fuels, coal and biomass utilization, and chemical self-reliance. Syngas, or synthesis gas, is a mixture of hydrogen and carbon monoxide produced by gasifying carbon-rich feedstocks, and it serves as a versatile building block for power, chemicals, hydrogen, and synthetic fuels. With abundant biomass, coal, and waste feedstock and growing policy support for gasification, India offers a favourable environment for new plants.
Setting up a Battery Energy Storage System Manufacturing Plant in India is a capital-efficient, high-growth venture, driven by the country's renewable energy expansion, grid modernization, and supportive storage policies. As solar and wind capacity scales up and the grid needs to balance variable generation, battery energy storage systems have become essential infrastructure.
Setting up a Lithium-ion Battery Recycling Plant in India is a capital-intensive but high-potential venture. India's rapid rise as a major electric-vehicle market, its large consumer-electronics base, and its fast-growing energy-storage sector are together creating one of the deepest and fastest-expanding pools of end-of-life lithium-ion batteries in the world.
Solar glass is a type of specialty glass that has high transmittance and is designed exclusively for use in solar energy systems. Unlike regular flat glass, solar glass is designed to have maximum light transmission with minimal losses due to reflection and absorption.
A solar inverter is a vital component in solar photovoltaic (PV) systems, responsible for transforming the direct current (DC) electricity produced by solar panels into alternating current (AC) electricity. This AC power is then suitable for use by the electrical grid, various appliances, and industrial equipment.
Australia has firmly established itself as a dominant force in the global liquefied natural gas (LNG) market, maintaining its position as one of the world's leading exporters. The country's strategic geographical location in the Asia-Pacific region, combined with substantial natural gas reserves, has enabled it to become a critical energy supplier to rapidly growing Asian economies, particularly China, Japan, and South Korea.
Japan's lead acid battery market stands as a cornerstone of the nation's energy storage infrastructure, demonstrating remarkable resilience and adaptability in an era dominated by rapid technological evolution. Despite the global shift toward lithium-ion technologies, the Japanese lead acid battery sector continues to thrive, driven by its unmatched cost-effectiveness, proven reliability, and exceptional recyclability.
Green hydrogen is the cleanest form of hydrogen available, as it is produced through water electrolysis using the electricity generated from renewable energy sources such as solar, wind, or hydropower. Carbon dioxide emissions are zero since no fossil fuels are used. Essentially, an electrolyzer is used in the electrolysis process to split water molecules into hydrogen and oxygen. The resulting hydrogen is refined by purification, compression, or liquefaction and then fed into various applications. Green hydrogen is considered a cornerstone of the global energy transition because it can store renewable energy, decarbonize hard-to-abate sectors, and serve as a sustainable alternative to fossil-fuel-based hydrogen.
Japan’s thermal power plant industry remains a crucial pillar of the nation’s energy infrastructure, providing a stable and reliable source of electricity for both industrial and residential consumption. Thermal power generation, which primarily involves the combustion of fossil fuels such as coal, natural gas, and oil, continues to play a key role despite increasing investments in renewable energy.
An electrical panel, also called a distribution board or switchboard, is an important installation in electrical infrastructure that acts as the main center for the distribution, control, and protection of electrical power within residential, commercial, and industrial systems. It acts as the point at which electrical energy is received from the utility or a source of power generation and is distributed to various circuits and equipment in an organized manner.
The global oil and gas EPC market is currently experiencing a remarkable transformation as it positions itself at the intersection of traditional energy demands and technological innovation. As of 2024, the market is demonstrating robust growth, reaching USD 52.9 Billion in 2024, depending on regional scope and market segmentation approaches. This substantial market base is supporting a major number of capital projects worldwide, including offshore platform projects and onshore installations that are collectively shaping the energy landscape.
Bamboo pellets are a biomass fuel type created through the compression of bamboo residues like shavings, sawdust, and chips into thick cylindrical pellets. They are an environmentally friendly substitute for conventional fossil fuels like natural gas and coal. Due to the fast growth rate and high biomass yield of bamboo, it has become one of the most renewable raw materials for the production of bioenergy.
Biomass briquettes are dense, solid fuel blocks made of compressed organic waste materials like sawdust, agricultural wastes, wood shavings, coconut shells, rice husk, or herbaceous biomass. The briquetting process usually involves drying the biomass to lower the moisture content (usually down to 10-15%), grinding or milling for a fine particle size uniformity, and then compressing under high pressure with or without a binding agent.
Biogas is a renewable energy form generated by the anaerobic fermentation of organic matter including agricultural residues, animal waste, municipal solid waste, sewage sludge, and food waste. Microorganisms in the absence of oxygen break down organic substances in the process and produce a gaseous mixture of mainly methane (CH4) and carbon dioxide (CO2), with traces of hydrogen sulfide (H2S) and water vapor.
A battery is an electrochemical energy storage system that transforms chemical energy into electrical energy by way of redox reactions between its electrodes and electrolyte. It consists of a single or multiple electrochemical cells, each having a positive electrode (cathode), a negative electrode (anode), and an electrolyte for ion transfer. Batteries are categorically divided into primary (non-rechargeable) and secondary (rechargeable) types.
The global energy landscape is undergoing a seismic transformation, with green hydrogen emerging as one of the most promising solutions to achieve deep decarbonization across sectors. Far from a niche technology, green hydrogen is emerging as a critical pillar of the future energy system, offering a pathway to a sustainable and resilient economy.
Transmission line towers are essential support components of transmission lines installed on overhead to distribute high-voltage electricity over long distances. Towers are made of galvanized steel, primarily, and are designed to tolerate mechanical stress, environmental loads, and electrical safety. Some of the important characteristics of transmission line towers are high structural strength, corrosion resistance, adaptability for modular design, and high service life. They are normally produced in lattice form (tubular or free-standing towers) or tubular form, with types including suspension towers, tension towers, angle towers, and terminal towers based on use.
The energy storage revolution is here, and it's powered by graphene. While the world struggles with the limitations of conventional lithium-ion batteries, a new technology is emerging that promises to shatter every performance barrier we've accepted as unchangeable.
Australia is undergoing a significant energy transformation, underscoring the growing role of renewable energy sources. These sources are key to combating climate change by reducing greenhouse gas emissions, the primary cause of global warming and air pollution. Beyond environmental benefits, renewable energy strengthens energy security by diversifying power sources and reducing dependence on volatile fossil fuel imports, contributing to greater energy independence.
Learn how to plan capital investment, manage raw material costs, post manufacturing cost and optimize operations for setting up solar panel plant.
Battery Energy Storage System (BESS) represents a power grid technology that stores electricity to enhance electric power grid reliability while increasing operational efficiency. BESS permits battery recharging during periods of low demand or extra grid supply capacity. BESS provides three principal operational functionalities which include power grid stabilization during supply disruptions, control of energy supply variations, and integration of intermittent renewable generation from wind and solar resources.
China's economic presence is expanding globally, and Latin America and the Caribbean (LAC) have become a focal point for its investments, especially within the energy sector. The region, rich in natural resources and experiencing rising energy demands, offers strategic opportunities for Chinese energy giants looking to invest and expand. LAC is currently leading a transformative movement towards sustainable energy. From 2015 to 2022, the region increased its renewable energy capacity by an impressive 51%, now generating 64% of its electricity from renewables such as hydropower, wind, and solar. This shift addresses the global demand for cleaner energy while supporting local economic growth and enhancing energy security.
Hydrogen is a clean, renewable, and widely available energy source that can be produced through various methods. Production techniques such as coal gasification, steam methane reforming, electrolysis, and thermochemical processes highlight its versatility. Hydrogen is essential in several critical sectors, including methanol and ammonia production, petroleum refining, transportation, power generation, as well as in electronics, metal industries, and as a rocket propellant. The increasing concern over carbon emissions and greenhouse gases has led to a shift towards cleaner fuel options. Hydrogen is recognized for its cleanliness and versatility as an energy carrier. Additionally, supportive government initiatives and favorable policies are driving the growth of hydrogen production globally.
Hydrogen is a clean, renewable, and abundant energy source derived from various methods. Its applications span across transportation, heating, and power generation. Diverse production methods, including coal gasification, steam methane reforming, electrolysis, and thermochemical processes, contribute to its versatility. Hydrogen plays a pivotal role in crucial sectors like methanol and ammonia production, petroleum refining, transportation, power generation, as well as in electronics, metal industries, and as a rocket propellant.
A floating solar farm is a renewable energy installation in which solar panels are mounted on floating structures in water bodies such as lakes, reservoirs, ponds, or even the sea. This technology, also known as a floating photovoltaic (PV) system, or “floatovoltaics,” enables solar power generation in areas with limited available land or where land use is restricted for other purposes. Floating solar farms offer various benefits, including improved solar panel efficiency through cooling, land conservation, reduction of evaporation and algae growth, and integration with hydropower facilities to generate both solar and hydroelectric power in the same location.
Nuclear power utilizes nuclear reactions to generate heat, which is then converted into electricity. This energy is released from the nucleus—the core of atoms composed of protons and neutrons. Nuclear power can be derived from nuclear fission, nuclear decay, and nuclear fusion reactions. Across the globe, nuclear power plants predominantly use the fission of uranium and plutonium to produce electricity. The heat generated from fission is used to create steam, which drives turbines connected to generators. Nuclear power offers several advantages over fossil fuels, such as minimal greenhouse gas emissions and a higher energy density, meaning a small amount of nuclear fuel produces a large amount of energy.
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By Aubrey Kimble on Nov 3, 2026
FISCAL COURT—At its regularly scheduled meeting last month, the Madison County Board of Adjustments postponed action on a requested conditional use permit for a solar farm. A new date for consideration has not been set.
The Nashville-based Silicon Ranch Corp., one of the nation’s largest independent energy producers, plans to invest $80 million to build a 53-megawatt alternating current solar farm on about 830 acres off Crooksville Road. The development would also include livestock to maintain the property’s vegetation.
The board originally said they would vote on the requested CUP in October. Instead, the meeting lasted 15 minutes and Solar Farms was not mentioned.
“The Board of Adjustments addressed all of the items that were properly before them on last night’s agenda. The meeting was brief because there were no additional matters requiring action once those agenda items had been addressed,” Deputy Judge Executive Jill Williams told The Edge in an email.
When asked about the solar farm proposal, Williams said the Board is still conducting due diligence.
“The Board is evaluating the proposals, along with any information, public comment, requirements, or potential conditions that may be necessary to make an informed decision to either approve or deny the applications,” Williams wrote in the email.
Williams said she “did not want to speculate” on a specific date for the community to expect the Board to vote, but added that the vote will appear on the agenda when the time comes.
In other business, the Board unanimously approved a variance for a 10-foot land variance requested by Whitney Croley for her mobile home on Blue Lick Road in Berea. The variance was for a porch with a roof and a ramp.
Board member Kim Olds, a domestic law attorney in Richmond, abstained from the vote. She would not tell The Edge why.
The next scheduled Board of Adjustments meeting, originally scheduled for Nov. 19 at 5:30 pm, has been marked as canceled on the Madison County meetings calendar.
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Waaree Solar Americas Inc. (WSA), a wholly owned subsidiary of India’s Waaree Energies Ltd., has started commercial production on two new solar module manufacturing lines at its facility in Brookshire, Texas.
Each line has an annual production capacity of 800 MW, bringing the facility’s total installed module manufacturing capacity to 3.2 GW.
The expansion forms part of Waaree’s broader manufacturing plans in the United States. WSA is also expanding its Arizona module manufacturing facility from 1 GW to 1.6 GW, which is expected to bring the company’s total US module manufacturing capacity to 4.8 GW in fiscal 2027, which in India runs from April 1, 2026, to March 31, 2027.. Waaree’s global module order book exceeds 25 GW.
Commercial production on the new lines began on Oct. 29, 2026, following an expansion approved by Waaree Energies’ board of directors in April 2025. The additional capacity doubles the Brookshire facility’s manufacturing capacity and strengthens WSA’s ability to supply US solar developers, utilities and engineering, procurement and construction (EPC) contractors with domestically manufactured modules, according to the company.
Waaree said the expansion comes amid changes in US trade policy, including measures under Section 232, that are affecting the economics of imported solar modules. The company said its investments in domestic manufacturing are intended to strengthen its position in the US market.
Revenue from Waaree’s US manufacturing operations increased to INR 13 billion ($146 million) in the second quarter of fiscal 2027, from INR 7.32 billion a year earlier. The US domestic business accounted for 43.8% of the company’s INR 592 billion order book, up from approximately 36% at the end of the preceding quarter.
“Shifting trade policy has strengthened the case for local manufacturing, and that is exactly where we have invested,” said Sunil Rathi, director of Waaree Group. “With Brookshire now at 3.2 GW and Arizona expanding, we are serving American customers from American factories, and our US order book continues to grow every quarter.”
The expansion is part of Waaree’s strategy to manufacture solar products in both India and the United States to serve domestic and international markets.
Waaree’s consolidated revenue from operations rose 23.9% to INR 75.18 billion in the second quarter of fiscal 2027.
The company is also expanding its upstream manufacturing operations in India. It plans to increase its solar cell manufacturing capacity from 5.4 GW to 15.4 GW in fiscal 2027 and commission a 10 GW ingot and wafer manufacturing facility in fiscal 2028.
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Thursday, November 5, 2026
10:00 am – 11:00 pm CEST, Berlin, Paris, Madrid
Join our four-day virtual event exploring Europe’s solar and storage markets, challenges, and opportunities.
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?
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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Sunspear Energy Re-Powers Wholesale Unlimited’s Early Solar Investment with Next-Generation 165.4 kW System Bergen Record
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Tongwei Solar has introduced the 500 W configuration of TNC 2.0 FULLX G12R-48 for the Australian market. The new 48-cell module features a compact format of 1762 × 1134 × 30 mm, designed for rooftop applications where available space, installation conditions and aesthetic requirements can vary significantly.
Built on Tongwei’s TNC technology platform, the module delivers up to 500 W with an efficiency of 25.02%. Compared with a conventional 475 W TOPCon reference module, it provides 25 W more power per module, enabling higher installed capacity within the same roof area.
Field testing at Tongwei’s Yancheng Test Base demonstrated an average 3.3% gain in per-watt energy generation compared with the tested conventional BC reference modules (Figure 1). During low-light periods in the early morning and late afternoon, the generation gain reached up to 12.32% (Figure 2), highlighting the benefits of lower leakage current and enhanced low-light performance.
Figure 1: Daily per-watt generation comparison at Tongwei’s Yancheng Test Base.
Figure 2: Energy generation gains during early morning and late afternoon low-light periods.
Beyond energy performance, the higher power output can also deliver additional financial benefits under Australia’s Small-scale Renewable Energy Scheme (SRES).
Under the scheme, eligible rooftop solar installations can receive an upfront discount through Small-scale Technology Certificates (STCs), with the number of certificates determined by system capacity, installation location and the applicable deeming period.
For a 14-module rooftop system, TNC 2.0 FULLX 500 W provides 7 kW of installed capacity, compared with 6.65 kW for conventional 475 W TOPCon modules. Based on a modelled STC value of AUD 40 per certificate and a five-year deeming period for installations in 2026, the additional 0.35 kW translates into approximately AUD 80–120 in extra upfront STC benefits across Australia’s four STC zones, subject to eligibility and prevailing certificate prices.
The higher installed capacity also offers the potential for greater lifetime electricity generation, further supporting the economic value of residential rooftop solar.
TNC 2.0 FULLX G12R-48 is designed to maintain strong energy performance across varying rooftop conditions. Its enhanced low-light response helps maximise electricity generation under changing irradiance, while its compact format supports installations with limited roof space or different roof orientations.
The module is available in full-black and black-frame designs, offering customers greater flexibility in rooftop aesthetics and system configuration.
With the introduction of its 500 W configuration at All Energy Australia 2026, Tongwei continues to expand its residential solar portfolio, combining high power density, energy-yield performance and practical value for Australian homeowners.
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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
Monday, November 23, 2026
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Inox Solar Americas has announced that its upcoming solar cell manufacturing facility in Greenville, North Carolina, is on track to begin production during Q2 2027.
With an annual production capacity of 3 GW, the 515,460 square foot facility is “a key part” of the company’s overall strategy in the U.S., officials say. As the North Carolinian firm looks to create a vertically integrated solar manufacturing platform in the U.S., the new facility will serve as a centerpiece of that plan.
Officials say the plant’s PV cell production will complement its existing module manufacturing capabilities once the Greenville facility is complete. The company aims to provide customers with greater access than ever to American-made solar technology, and create a transparent and resilient supply chain.
“Our continued progress on U.S. PV cell manufacturing represents an important step in building a more integrated and resilient domestic solar supply chain,” says Ashok Nair, president and CEO of Inox Solar Americas. “By bringing advanced cell technology, high-performance module manufacturing, and rigorous quality control together within our U.S. manufacturing platform, we are strengthening our ability to support customers with reliable supply and the bankability required for their project pipelines.”
Inox’s strategy is designed to increase domestic content across the whole of the firm’s portfolio, officials say. But alongside product proliferation, the firm says the new plant will have an even more important effect.
The Greenville plant is a safeguard against the U.S. manufacturing industry’s domestic content requirements, including Foreign Entity of Concern (FEOC) and Prohibited Foreign Entity (PFE) considerations. The firm says the new plant will provide company- and industry-wide protection against these requirements, as they continue to evolve and change with federal energy policy.
Additionally, the new plant will provide visibility and control to Inox and its customers. As the status of the solar supply chain continues to hang in the air, partially thanks to FEOC and PFE restrictions, control of critical stages of that chain is crucial.
“Inox Solar Americas is strengthening supplier qualification, component-origin documentation, material traceability, production records, and supply-chain due diligence to support customers seeking greater transparency regarding where and how their products are manufactured,” the company says.
“Increased domestic production is also designed to reduce dependence on imported PV cells, mitigate exposure to global supply disruptions and trade-related risks, and provide more reliable product availability for U.S. project pipelines.”
The Greenville factory will integrate Galaxion-brand PV cell technology with Inox’s Gamma Series monofacial and Vega Series bifacial PV modules. Deliveries will begin shortly after the plant’s anticipated operational date of Q2 2027.
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Tuesday, November 3, 2026 at 3:30 AM
By Kathy Bottorff
Marshall County officials are preparing for an appeals process that could extend into next summer, after Tamarack Solar filed a notice of appeal challenging a court ruling that upheld the county's rejection of an industrial solar farm project in Burr Oak.
County Attorney Sean Surrisi provided an update on the matter to the commissioners during their meeting on Monday.
The dispute dates back to a decision by the Marshall County Board of Zoning Appeals (BZA) to reject Tamarack Solar's special use request for the Burr Oak project. At the end of September, the county received an order from the court in Fort Wayne affirming that the BZA's rejection was proper.
Tamarack was given 30 days to appeal against the court's decision. On October 29th, Marshall County received the notice of appeal that Tamarack Solar filed within that window.
The court has requested that transcripts be prepared of the final hearing and one of the underlying hearings. The court reporter has been given 45 days to prepare the transcripts, which would be around mid-December.
Once the transcripts are completed, the briefing schedule will proceed. Tamarack Solar will have 30 days to file its appellant brief. The Marshall County BZA will then have 30 days to file its response brief. After the BZA brief is filed, Tamarack will have an additional 15 days to file a reply.
Surrisi estimated that, barring any requests for additional time, briefing would conclude around March.
Following the completion of briefing, the Court of Appeals will consider the case. Surrisi noted that Indiana has one of the fastest Courts of Appeals in the country in terms of turnaround time from final briefing to decision. "The average is two and a half to three months they take to cite a case," Surrisi said.
Based on that timeline, Surrisi indicated that a decision on the appeal would likely come sometime next summer.
Despite the extended legal process, the county attorney expressed confidence in the strength of the county's case.
"I still feel very confident that we are in a strong position, particularly after the judge's very thorough order denying Tamarack's request," Surrisi said.
The judge's detailed ruling in the lower court proceeding, which affirmed the BZA's authority to reject the special use request, forms the foundation of the county's position as the case moves to the appellate level.
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Renewable energy developer PowerBank has completed the 3.26-MW Camillus community solar project in Camillus, New York, and has received permission to operate. Solar Advocate Development, LLC, the project’s owner and EPC, built the array on a capped landfill, which it acquired from PowerBank in spring 2025 in a $7.3 million transaction.
“A closed landfill is land that most people would write off,” said Andrew van Doorn, president and COO of PowerBank. “At Camillus, our engineers and construction partners turned it into a 3.26-MW source of clean power for local households. Reaching permission to operate on a site like this reflects decades of hands-on experience, and it’s exactly the kind of project where that experience matters most.”
The project will soon accept community solar subscriptions. Solar Simplified will manage customer acquisition and subscription services for this community solar project.
News item from PowerBank
Billy Ludt is managing editor of Solar Power World and currently covers topics on mounting, inverters, installation and operations.
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I walked the floor last week at Australia’s biggest solar trade show, All Energy, to judge the best in each product category for our annual show roundup video (watch it above!).
The video gives a minute to each product – gotta cater to the short attention spans of YouTube – but this post will go into more detail on why I chose each one.
You’ve probably bought something from Clenergy without knowing it. The company started in Melbourne in 2006, set up manufacturing in Xiamen in 2007, launched here in 2008 and released its PV-ezRack mounting system in 2009. If you’ve got solar, there’s a fair chance your panels are bolted to Clenergy rails. Its Australian arm still runs out of Clayton in Melbourne’s south-east.
After almost 2 decades of selling and supporting some of the best racking systems in Australia, they’ve gone and launched the Advance Series, an all-in-one stack that pairs a single-phase 6kW hybrid inverter or 3-phase 12 kW inverter with one to eight 6 kWh, 7 kWh or 8 kWh LFP modules. So up to 64 kWh.
The inverter takes double its kW rating in solar. It switches to backup in ~10 milliseconds, with 150% surge for a minute.
The safety design is more industrial than most home stacks. Clenergy calls it three-tier protection: sensors on every cell, reinforced electrical and mechanical isolation, then aerogel insulation, explosion venting and aerosol fire suppression to stop thermal runaway in its tracks.
Good kit, but what got Clenergy my vote is where the data lives.
Clenergy promised me they run its platform on Australian servers. That puts your data under Australian law, keeps it accessible if international links or international relations go sideways, and gives you a local company to ring when it breaks down. The hardware is still made in China, like nearly everything on that floor. But the accountability is here, and it’s been here for 18 years.
Looks like a really nice app too.
The G-MAX Plus is a 241 kWh industrial cabinet, 2.23 metres tall and 2.6 tonnes.
Four packs of 60.29 kWh each. FoxESS rates them for at least 8,000 cycles before they fade to 70% of original capacity. Cycle it once a day and that’s nearly 22 years.
Then the cooling. The G-MAX Plus is liquid-cooled, with 128 temperature sensors watching the cells. Most home stacks rely on passive cooling or a fan. That matters because the hottest cell in a pack ages fastest and drags its neighbours down with it. Liquid cooling keeps every cell at much the same temperature, from -25°C to 55°C ambient.
The fire safety is properly industrial. Smoke and heat detectors, an alarm sounder, aerosol fire suppression at both cabinet and pack level, and an explosion vent to send pressure somewhere safe if the worst happens. The packs are IP67, the cabinet IP55, and the corrosion rating is C4 as standard with C5 optional. C5 is what you want within sight of the ocean.
The inverter is built in, from 50 kW to 125 kW. The hybrid version takes solar directly, runs off-grid with a switchover under 10 milliseconds, and plays nicely with a diesel generator. FoxESS rates its backup output at double the grid-connected figure, up to 250 kVA on the 125 kW model, which helps when a big motor kicks in. You can parallel up to 25 cabinets on-grid (about 6 MWh) or 10 off-grid. The software handles peak shaving, load shedding and frequency regulation, and reports to the Fox cloud over Ethernet or 4G.
Why A Commercial Battery Wins
I gave the gong to a C&I cabinet because it’s the hard version of the problem. Getting liquid cooling, layered fire suppression and a 125 kW inverter into one cabinet that’s tested in the factory and plugged in on site proves a company can engineer and manufacture.
I know solar panels mostly all look the same – but this 510 W, 48-cell panel measuring 1,762 × 1,134 mm is stunning in it’s obsidian-like blackness. It’s 25.5% efficiency, weighs 22 kg, and it’s dual-glass and monofacial, which makes sense for a roof where nothing useful is bouncing up from behind.
Then the warranty: 40 years on both product and linear power output. Jinko’s rooftop Tiger Neo carried a 20-year product warranty when it landed here in 2022, and 25 years by 2023. Going to 40 is a big public bet on dual glass and a better moisture seal around the edges.
A Warranty Needs A Local Company Behind It
A 40-year promise is worth whatever the company making it is worth in 2066. This is where Jinko earns the gong. It’s been supplying Aussie roofs for over a decade. It shipped its first Tiger Neo panels here in early 2022 and its one millionth 440 W Tiger panel by August 2023. It has a local subsidiary, distributors across the country, and Australian engineers who feed installer complaints back into the product. That’s the track record I want behind a warranty that will outlast most of us.
My pick for best EV charger doesn’t hang on the wall – it is built into the PowerHarbour Pro, Sungrow’s new all-in-one stack, launched in Australia at the show.
That’s the right idea. I keep telling people to ask “what do you already own?” before buying a charger or a battery, because three boxes from three brands with three apps is how solar owners end up charging the car from the grid at 6pm. A charger that lives inside the inverter, reading the same solar and battery data, removes a whole category of argument between boxes. It comes without a cable – so you can buy one long enough to reach your car. Sungrow says the Pro is designed with V2X in mind too, though I’ll believe bidirectional charging in Australia when I see it working on a driveway.
Why Sungrow? Track record. It’s been one of the most-installed inverter brands in Australia for years, it has local engineering and support teams, and installers keep choosing it. I own a Sungrow battery myself.
One Catch
I’ve recently discovered that Sungrow’s local Modbus control is unreliable.
That sounds like nerd stuff, but stick with me. Modbus is how a home energy manager, or a tinkerer running Home Assistant, talks to the inverter directly over your home network without a round trip through Sungrow’s cloud. It’s your fallback when the internet drops, when the cloud has a bad day, or when the company changes its policies. Remember the Clenergy argument about where your data lives? Local control is the strongest version of it. Data that never leaves your house can’t be switched off from somewhere else.
If Sungrow wants PowerHarbour to be the brain of the home, running your battery and your car, local control has to be rock solid.
Enphase has spent two decades making the same product a bit better each time. IQ6, IQ7, IQ8, and now IQ9. More power, higher efficiency, grid-forming chips with the IQ8, and no lurch into a new business every 18 months. It’s shipped almost 88 million microinverters along the way. In an industry addicted to the next shiny thing, I respect a company that keeps grinding on one product until it’s excellent.
The IQ9N, launched here in July, is the latest grind. It swaps silicon transistors for gallium nitride (GaN), which switches faster and wastes less energy as heat. Heat is what kills electronics on a roof, so a cooler micro should be a longer-lived one.
Why I Still Rate Micros
The case for micros hasn’t changed in years, and it’s still under-sold.
There’s no high-voltage DC on your roof. A string system can run up to 1000 V DC across the roof and down the wall, while the IQ9N tops out at 60 V per panel. If a micro dies, you lose one panel, not the whole system. Panel-level monitoring tells you exactly which panel is sulking. Odd roof shapes and mixed orientations are no drama, and adding panels later is easy. And you get 25 years of warranty in a market where 10 or so is typical for a string inverter.
The downsides: micros cost more upfront, and replacing one means someone climbing on your roof.
Then there’s AC coupling, which is about as fashionable right now as Anthony Albanese. Everyone wants a hybrid inverter with a DC-coupled battery cuz skipping a conversion step increases efficiency by 2-3%.
But I’m still a fan of AC coupling. The solar and the battery are independent systems, so either can fail, be upgraded or be replaced without touching the other. You can bolt a battery onto almost any solar system years later. On a 25-year asset, that flexibility is worth more to me than a few per cent.
In a hall full of stacks fighting over price per kWh, Enphase still competes on engineering. It costs more, and I think it’s worth it.
Phase Shift is a weekly opinion column by SolarQuotes founder Finn Peacock. Subscribe to SolarQuotes’ free newsletter to get it emailed to your inbox each week. For more of our All Energy 2026 coverage, watch our latest video, and read what conference speakers revealed about the future of batteries & EVs.
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I’m a Chartered Electrical Engineer, Solar and Energy Efficiency nut, dad, and the founder of SolarQuotes.com.au. I started SolarQuotes in 2009 and the SolarQuotes blog in 2013 with the belief that it’s more important to be truthful and objective than popular. My last “real job” was working for the CSIRO in their renewable energy division. Since 2009, I’ve helped over 800,000 Aussies get quotes for solar from installers I trust. Read my full bio.
I love the defence of AC coupling with battery and use of microinverters, no single point of failure to take down the whole home solar show.
Yes, I was advised to get an Enphase system with micro inverters years ago for all the same reasons that Finn mentions. A bit more expensive but I’m still pleased that I went with it. It’s good to hear that Finn still rates them.
Hi Alan. I have three solar systems installed on my roof, the first 2 systems in 2008 and 2010 were installed with string inverters. The last addition was in 2016 that included Enphase microinverters. The wiseness of that 2016 decision was shown to me last December when one of my string inverters failed, after 15 years of faithful service, taking down that particular system. A microinverter fail only takes down a particaulr solar panel, the other panels keep going, doing their special business. The 2008 system is a rather modest 1kWh system and I am thinking about replacing that with today’s much higher kW sized panels and I will looking to using Enphase microinverters.
Exactly. And it’s not only about failures. The Enphase web program lets me look at what each individual panel is producing, so I can easily tell if one of them is underperforming for some reason.
I went with the Hoymiles micro’s because their larger models handle larger panels (2kW), were cheaper and I haven’t regretted it.
The other benefit which wasn’t mentionedn is the cost saving in cabling (AC vs DC).
SigEnergy all ready doing V2X with their EVDC charger, sits in the stack between the batteries and inverter, so uses the already CEC approved inverter to power the house. Works like a charm, have an MG4 that we can use to power the house if there’s not enough charge in the house batteries. Charging the car is great too, DC power straight from the panels into the car.
Hi Steve,
Do MG have any conditions on the battery warranty for the car if you’re discharging it?
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“I have searched market place with no luck.”
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Finding a local seller proved difficult for a North Carolina shopper with a small solar order in mind: just five or six panels.
After turning to Reddit for help, the shopper received a response pointing to a potential complication when ordering panels for delivery — freight shipping.
The search centered on North Carolina’s Piedmont region, where a shopper hoped to find 400- to 440-watt panels and asked Reddit’s r/solarDIY community for leads.
“I am wanting to buy 5-6 solar panels that are 400-440 watt in the piedmont area of North Carolina. Does anyone know where we can find some ? I have searched market place with no luck,” the original poster wrote.
One commenter replied, “I’ve found that if you need panels shipped, full-size residential panels usually make more sense in larger quantities because they often require LTL freight shipping. That’s a big part of why I went with more 200W panels instead.”
For homeowners considering a larger installation, 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 with no upfront costs. Homeowners can use EasyHome‘s free explorer tool to see their potential savings from vetted installers in their area.
The panels the shopper requested would provide between 2,000 and 2,640 watts of rated capacity. Those ratings, however, do not guarantee how much electricity an installed system would produce.
Matching that capacity with smaller panels would require more of them — at least 10 200-watt panels to reach 2,000 watts.
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.
According to the commenter, power output per square foot is roughly comparable between conventional residential panels and HQST’s newer 200-watt models. The HQST panels measure about 30 inches by 46 inches, they said.
The commenter reported a positive experience with HQST’s newer models, but the exchange did not include a price comparison or freight quote.
For homeowners considering an installed system rather than sourcing individual panels, EasyHome offers a way to explore potential savings with vetted local installers. EasyHome can also help homeowners explore backup battery storage options; pairing solar with a battery allows homeowners to maximize savings and power their home with solar when the grid goes down.
Buying a few solar panels can come with headaches beyond freight shipping. These stories cover costly system expansions, installation hurdles for imported equipment, and warnings about used solar deals.
• In New Jersey, adding seven solar panels brought a quote topping $16,000.
• After spending $41,000 on solar, a homeowner learned 13 more panels could require rework.
• A U.K. homeowner considered cut-price equipment from China, but finding an installer proved difficult.
• DIY solar shoppers questioned near-new prices for six-year-old panels paired with outdated IQ7 microinverters.
• A solar newcomer considered an 18-year-old solar setup, then received warnings about potential costs.
Get TCD’s free newsletters for easy tips, smart advice, and a chance to earn $5,000 toward home upgrades. To see more stories like this one, change your Google preferences here.
© 2025 THE COOL DOWN COMPANY. All Rights Reserved. Do not sell or share my personal information. Reach us at hello@thecooldown.com.
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HELP GUIDES
Income Tax in France
Healthcare in France
Inheritance Law and Wills in France
Visas and residency cards for France
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HELP GUIDES
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Reader is generating income from renewable energy
Reader question: We have bought a property which we plan to use as a holiday home for two months a year. The roof has solar panels installed and we have a contract with EDF Solar to sell the power generated back. We invoiced EDF €1,127 this June for 12 months of generated power. Do we need to submit a tax return given we earned a small income in France from the solar panels?
Assuming you have a modest domestic installation of no more than 3kWc, then this kind of income usually has to be declared for information to the tax office but it is not taxable in France (it is also free from the French social charges).
Additional requirements for this are that the installation should not be connected to the grid at more than two points and should be operated by an individual as opposed to being part of a business.
People who declare in France are asked to enter such income on the main online declaration or on paper form 2042C PRO, at box 5NN for revenus nets exonérés in the section for revenus industriels et commerciaux no-professionnels.
The issue therefore arises as to whether you as a non-resident have to complete a French tax return simply to declare this income.
We asked the central tax authorities, the DGFiP, who replied that as long as the three conditions are met, non-residents are not obliged to declare this income.
This makes good practical sense as the declaration made by residents is essentially so that the tax office has the full picture of the declarant’s affairs.
We also note that any tax office penalties for late or non-declaration of incomes are calculated as a percentage of tax actually due.
If your installation is larger than 3kWc, the answer is simple: yes, the income has to be declared to the non-residents’ tax service in spring 2027 for sums paid to you in 2026.
If doing so for the first time you can do this by paper, however it is recommended to get set up as soon as possible with an account at the government Impots site.
Reader wonders if using English inheritance law will help
Owners themselves are exempt after 30 years’ ownership
A measure in UK’s Autumn Budget will ease tax for children and spouses
Nearly a million tonnes of waste is dumped illegally in France each year
Find out how to avoid unexpected mobile phone bills when travelling abroad
Graphic shows changes to everyday life taking place this month
Funding to upgrade fireplaces may be available
Gore film is set among Cévennes vineyards poisoned by pesticides
We talk charity fundraising, buffet lunches and recruiting coordinators with President Sue Lambert
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