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For a project expected to operate for decades, every design decision contributes to the long-term performance of the asset. Module reliability, degradation characteristics and manufacturing quality can therefore be as important to lifecycle planning as the initial nameplate rating.
November 13, 2026. By News Bureau

IB Solar Targets 1 GW Solar Cell Capacity and BESS Expansion, Says Abhinav Mahajan

Solis’ Honey Raza Explains the Shift Towards Solar-Plus-Storage Solutions in India

Credence Solar’s Jinto Joseph Explains the Company’s Manufacturing Growth Strategy

Mohammed Saif Zaveri, JRST Technology, Explains Journey Towards Domestic Ingot Manufacturing

Amit Barve, RAYZON Solar, Says Tandem Technology Will Shape Future of Solar Manufacturing

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NAED Energy Holding Inc. Details the Rating of Its PV-1  GlobeNewswire
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The Ecuadorian government has introduced a 0% rate for value-added tax (VAT) and the tax on foreign currency outflows (ISD) on certain equipment and components used in the electricity sector, including solar PV and energy storage systems. The measure is established under Executive Decree 530, signed by President Daniel Noboa and published on Nov. 11 in the Fifth Supplement to Official Gazette No. 407.
The decree amends Article 194 of the regulations implementing the Internal Tax Regime Law. It covers equipment, turbines, inverters, generators, machinery, materials, supplies, components and systems, as well as associated parts and accessories. Eligible goods must be intended for the installation, expansion, rehabilitation, modernization, operation or maintenance of electricity infrastructure.
The 0% tax rates apply to equipment used in solar PV, wind, hydropower, thermal and geothermal generation facilities, among other technologies. They also cover energy storage systems and their components, as well as electricity transmission, distribution and retail infrastructure.
The Ministry of Environment and Energy has issued Ministerial Agreement MAE-MAE-2026-0118-AM, identifying 55 categories of goods eligible for the 0% VAT rate on the domestic market. The list includes solar cells, modules, panels, generators, inverters, power optimizers, charge controllers, mounting structures, tracking systems and direct-current (DC) solar cables.
For energy storage, eligible products include stationary battery cells and modules, battery banks, integrated storage systems, bidirectional converters and battery management equipment.
The agreement also establishes 104 tariff subheadings covering imports eligible for the 0% ISD rate. The tax benefits apply exclusively to goods and transactions expressly listed in the official annexes.
Article 55 of the Internal Tax Regime Law already provided for a VAT exemption on solar PV generation equipment and accessories. The new decree clarifies the regulatory scope of that provision and establishes the ISD treatment for imports included in the official list.
Both the decree and the ministerial agreement were published on Nov. 11, with the new rates taking effect on Nov. 12, 2026.
The decree also includes a transitional provision covering domestic purchases and imports made between Jan. 1, 2026, and the date the reform entered into force. Taxpayers may deduct VAT paid on eligible goods as an expense for the 2026 income tax year, provided the amounts have not already been claimed as input tax credits or offset against VAT collected on sales.
The measure forms part of broader regulatory changes in Ecuador’s electricity sector. The country has been seeking to accelerate private investment in renewable energy following the electricity shortages and widespread blackouts of 2024.
In August 2025, the government had authorized 643 MW of private renewable energy projects, including solar and hydropower. The total comprised 179.1 MW of distributed generation projects intended to supply the electricity market and 464.6 MW of self-generation capacity for corporate consumers, with the option to sell surplus electricity.
According to the International Renewable Energy Agency (IRENA), Ecuador had 131.35 MW of cumulative installed solar PV capacity at the end of 2025, up from approximately 84 MW in 2024.
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Tuesday, November 24, 2026
3:00 pm – 4:00 pm CET, Berlin, Paris, Madrid
The new issue of pv magazine Global is out now!
Available in print and digital – get your copy today!
Day 1 | Europe’s Solar and Storage Markets 2027: What works where?
Day 2 | Solar + Storage Co-location: Three markets, three business cases
Day 3 | Solar Quality: Which technical risks still need better answers?
Day 4 | Cybersecurity and Procurement: What can European solar projects source in 2027 and beyond?
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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JA to supply n-type modules to Teraco’s 120MW Sediba solar project in South Africa  PV Tech
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A public consultation has been launched on proposals for a large-scale solar farm in West Lindsey.
Renewable energy developer Elgin said the 99MW Stone Pit Lane Solar Farm, planned on land south of Keelby, could generate enough renewable electricity to power up to 40,000 homes.
The company said it was seeking feedback from residents before submitting a planning application to West Lindsey District Council.
The consultation runs from 12 November to 10 December, with drop-in sessions taking place at Keelby Village Hall on 18 and 19 November.
According to the developer, the scheme would help increase Britain's supply of renewable energy, reduce reliance on imported fossil fuels and support energy security.
The company has also pledged to establish a Community Benefit Fund to support local groups and projects, with ideas from residents welcomed during the consultation.
Senior development manager Jamie Andrews said: "The plans are at an early stage, meaning the design is evolving and local expertise will play an important role in determining the final scheme."
The latest proposals follow a series of major solar development plans across Lincolnshire.
Earlier this year, plans for a solar farm near Keelby and Healing were approved by North East Lincolnshire Council, despite objections from local residents, as well as Healing Parish Council and Keelby Parish Council.
The site is located in two council areas and a planning application has also been approved by West Lindsey District Council, subject to conditions.
Meanwhile, a legal challenge to the UK's largest currently approved solar farm has been rejected by the High Court.
The Department for Energy Security and Net Zero (DESNZ) approved Springwell Solar Farm, between Lincoln and Sleaford, in April, saying it would help "bring down bills for good".
Lincolnshire County Council and North Kesteven District Council sought to overturn the decision, arguing the project would harm rural communities and landscapes.
County council leader Sean Matthews said he was "bitterly disappointed" by the outcome.
"We've got to think of food security and this government just don't do that," he said.
"They're just going to be covering more and more of our good, most versatile land with solar panels."
Springwell is classed as a Nationally Significant Infrastructure Project (NSIP), meaning it required government approval.
Smaller projects can be decided locally.
In August, one farmer told the BBC he had no choice but to turn to solar in order to survive.
Matthews said he was "all for solar panels", adding: "I just don't want them on our farmland."
He said more needed to be done to support struggling farmers to ensure growing crops remained a viable business.
"That's a bigger discussion that we need to have with supermarkets," he added.
Listen to highlights from Lincolnshire on BBC Sounds, watch the latest episode of Look North.
Download the BBC News app from the App Store for iPhone and iPad or Google Play for Android devices
Two councils launched a claim for a judicial review after the approval of Springwell Solar Farm.
Cople Parish Council says the project will lead to the loss of "high quality" agricultural land.
The government refused permission for the £800m Botley West solar farm in Oxfordshire on Tuesday.
Harm to greenbelt land and "adverse impacts on aviation safety” are among the reasons.
The government approves of the development Green Hill Solar Farm despite local opposition.
Copyright 2026 BBC. All rights reserved. The BBC is not responsible for the content of external sites. Read about our approach to external linking.
 

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ReNew Energy has announced plans to invest around INR 80,000 crore ($8.9 billion) in digital infrastructure and clean energy manufacturing projects in the Indian state of Andhra Pradesh.
The proposed investments include an INR 67,000 crore, 1 GW green hyperscale data center in Anakapalli; INR 11,000 crore in polysilicon and metallurgical silicon manufacturing facilities in Anakapalli and Nellore; and an INR 1,500 crore permanent magnet manufacturing facility in Rambilli.
The company also plans to establish the ReNew Centre for Technical Excellence (R-CTE) in Visakhapatnam under the Indian government’s PM SETU scheme.
The polysilicon and metallurgical silicon facilities will strengthen India’s domestic solar manufacturing supply chain. They will complement ReNew’s existing investments in solar manufacturing, including a 6.5 GW ingot and wafer production facility in Anakapalli, which is expected to be commissioned by March 2028.
The proposed 1 GW hyperscale data center in Anakapalli will be powered by renewable energy, expanding ReNew’s presence in digital infrastructure.
ReNew also plans to invest INR 1,500 crore in a permanent magnet manufacturing facility in Rambilli, with commissioning scheduled for March 2029.
As part of its workforce development initiatives, ReNew will collaborate with the Andhra Pradesh government to develop a cluster of five industrial training institutes (ITIs) in Gajuwaka, Visakhapatnam, into the ReNew Centre for Technical Excellence.
The initiative falls under the PM SETU framework, which provides for indicative investments of up to INR 241 crore over five years for a typical hub-and-spoke ITI cluster. The center will focus on developing industry-relevant technical skills and improving employability in renewable energy, advanced manufacturing and related sectors.
ReNew currently operates 717 MW of wind and 60 MW of solar capacity across 10 sites in Andhra Pradesh.
As of Oct. 30, 2026, the company’s gross clean energy portfolio stood at 20.5 GW, including 1.7 GW/6.2 GWh of battery energy storage systems (BESS).
ReNew also has 6.4 GW of solar module and 2.5 GW of solar cell manufacturing capacity. It is adding another 4 GW of solar cell production capacity, which is expected to become operational in the fourth quarter of fiscal 2027.
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Tuesday, November 24, 2026
3:00 pm – 4:00 pm CET, Berlin, Paris, Madrid
The new issue of pv magazine Global is out now!
Available in print and digital – get your copy today!
Day 1 | Europe’s Solar and Storage Markets 2027: What works where?
Day 2 | Solar + Storage Co-location: Three markets, three business cases
Day 3 | Solar Quality: Which technical risks still need better answers?
Day 4 | Cybersecurity and Procurement: What can European solar projects source in 2027 and beyond?
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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On November 9, the Business 20 (B20) Summit kicked off in Washington, D.C. JinkoSolar, a global leader in photovoltaic and energy storage, was invited to attend. As the only photovoltaic company invited, it participated as a core member of the Energy Task Force, engaging in discussions with leaders from globally renowned companies, international organizations, and business associations on energy issues. This marks the 11th consecutive year that JinkoSolar has been invited to attend the B20 Summit.
The theme of the 2026 U.S. B20 Energy Task Force’s recommendations is “Powering global growth through secure, abundant, affordable energy supply and infrastructure.” It calls on G20 leaders to collaborate with the private sector to mobilize various forms of investment, support technological innovation, enhance universal access to energy, accelerate the improvement of the global energy system, and achieve long-term sustainable prosperity for both the environment and the economy. Strengthen global energy security through resource input and infrastructure development; ensure an adequate energy supply through a diversified and inclusive energy mix, and address the surging demand for electricity driven by artificial intelligence (AI) and the industrial sector by advancing grid modernization.
As a core member of the Energy Task Force, JinkoSolar, drawing on its large-scale practices in the global photovoltaic and energy storage sectors, has put forward five recommendations:
The B20 Energy Task Force serves as the core platform for energy recommendations from the G20 business community, focusing on key issues such as global energy security and construction. The recommendations will be submitted to G20 leaders for consideration. Becoming a core member of this task force means entering the key circle of global energy governance and participating in cutting-edge agendas that affect national energy strategies.
Having been deeply involved in the B20 process for 11 consecutive years, JinkoSolar, drawing on its frontline industry practices, has translated experience—such as the supply of affordable green energy, the synergy between solar power and energy storage, and the integration of computing and power—into actionable projects. The company serves as a bridge between the industry and policymakers in global energy governance, while also demonstrating the positive value of Chinese solar-storage enterprises participating in international energy governance.

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Bitek Solar and Luxpower Tek Show Hybrid Inverters of 3 kW to 30 kW at REI 2026
Waaree Brings Inverters of 3 kW to 350 kW to REI 2026
Vikram Solar Shows a 720 W Hypersol Module at REI 2026
Solis Marks 10 Years and 10 GW in India at REI 2026
SolarEdge Marks 20 Years With a 100 kW Commercial Inverter at REI 2026
Raydean Brings a Tracker Drive and Micro-Inverter to REI 2026
Premier Energies Brings a 630 Wp Zero-Busbar Module to REI 2026
Icon Solar Launches a 720 Wp G12 TOPCon Module at REI 2026
IB Solar Shows a 640 Wp G12R Module at REI 2026
Havells Brings Its Greeha Rooftop Kit and 630 Wp Module to REI 2026
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Malaysia will continue providing residential solar rebates to approved applicants under its Sustainable Rebate and Incentive Assistance (SuRIA) Home programme into 2027, the country’s Energy Transition and Water Transformation Minister Fadillah Yusof has confirmed.
The SuRIA Home programme launched in June with a MYS 150 million ($36.7 million) budget. The scheme offers eligible households a rebate of MYS 600 ($147.11)/kW of installed solar capacity up to a maximum of MYS 3,000 per household for a 5 kW PV system.
Yusof’s update to parliament earlier this week confirmed that applicants whose installations have not been completed by the programme’s scheduled Dec. 31, 2026 end date will remain eligible for their approved rebates, provided their solar systems are installed by March 2027.
There is currently MYS 90 million worth of funding support remaining, the minister added.
Government statistics state that 12,374 households had received support through the scheme as of September 15, worth a combined MYS 36.2 million. The government set a target of supporting 50,000 homeowners under the scheme at the time of its launch.
Yusof also provided parliament with an update on Malaysia’s Solar Accelerated Transition Action Programme (Solar ATAP), which allows residential, commercial and industrial customers to install solar for self-consumption while exporting surplus power to the grid. It came into effect at the start of the year.
The programme had approved 24,291 applications representing 391.85 MW of solar capacity as of September 15, Yusof said, compared to with 135.92 MW approved as of April 30, representing an increase of almost 190% in approved capacity over four and a half months.
Yusof also highlighted solar leasing and rent-to-own arrangements as alternative financing options that could reduce upfront costs and make residential solar installations more accessible to lower- and middle-income households in Malaysia.
Malaysia added 1.4 GW of solar last year, taking cumulative capacity to in excess of 5.7 GW.
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Tuesday, November 24, 2026
3:00 pm – 4:00 pm CET, Berlin, Paris, Madrid
The new issue of pv magazine Global is out now!
Available in print and digital – get your copy today!
Day 1 | Europe’s Solar and Storage Markets 2027: What works where?
Day 2 | Solar + Storage Co-location: Three markets, three business cases
Day 3 | Solar Quality: Which technical risks still need better answers?
Day 4 | Cybersecurity and Procurement: What can European solar projects source in 2027 and beyond?
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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India’s installed power capacity rises to 560 GW, non-fossil sources account for 55 pc  Social News XYZ
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US midterms: Data centre backlash could slow solar’s AI boom  PV Tech
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Multiple assembly line modules can be deployed on a single project to boost production capacity.
​Terabase Energy's automated solar installation platform will be deployed at a 457 MW solar project in Texas.
These systems can assemble one unit in about 2 minutes when operating continuously.
It can achieve 20 MW production output in a week's time, the company claimed.
A solar project in Navarro County, Texas, is shifting to an automated platform to accelerate the completion of its 457 MW renewable energy project.
​The system, Terafab V2, behaves like a small, portable modular robotic factory that helps with on-site assembly and installation of solar modules. Interestingly, the system also oversees the management and planning of the entire project.
​U.S.-based Terabase Energy describes its upgraded system, launched this April, as a modular “factory” that assembles solar components for quality checks and site placement.
​Once installed, these systems can assemble one unit in about 2 minutes when operating continuously, the company claimed. At this rate, it can achieve 20 MW production output in a week’s time, it added.
​Matrix Renewables, a Spanish company, is behind this recent commercial deployment at the Tormes Solar project in the Southern state. These upgraded automated solar construction platforms have been field-tested and are currently optimized for First Solar Series 7 modules and Nextpower trackers.
​Much of the work in solar fields is labor-intensive, time-consuming, and incurs huge costs for transporting the bulky raw materials. To tackle these challenges, the Terabase Energy has created a temporary production line on the farm and automated it.
Before the portable robotic assembly begins, solar panels and metal hardware like tracker torque tubes, frames, brackets, and mounts are delivered to the farm.
​The system’s robots fasten the photovoltaic modules onto long rotating steel tubes, called tracker torque tubes — steel frames that allow solar panels to track the sun.
​Once the automated system has completed assembly of the finished units, it uses AI-assisted tools to perform quality checks, confirming everything is correctly placed. After this, the automated vehicles called rovers carry the assembled units across the solar farm for the final installation. At last, workers in the field remove the assembled solar panels before placing them onto tracker supports that are already fixed in the ground.
​These modular and portable robotic systems can be set up in approximately four hours, which means it can be deployed quickly and also relocated easily to move across the solar farm as construction advances.
​Multiple such assembly line modules can be created on a single project and increase the production capacity, Terabase Energy highlighted.
​Apart from the rapid deployment and relocation benefits of assembly line production units, Terabase’s platform combines automation hardware with software.
​Rather than simply deploying robots, the platform combines planning, material tracking, and logistics software with a digital replica of the construction site. This allows the managers to monitor and coordinate the project more effectively.
​The company expects to speed up the construction of solar projects by integrating robotic systems at different stages.
​Compared with conventional utility-scale PV installation methods, adopting its automated construction approach can double labor productivity, the company claimed. However, the actual output, it added, depends on project configuration, equipment utilization and site conditions.
​Terabase said the first-generation Terafab platform, available since 2022, has been used to install about 40 MW of tracker-mounted solar capacity across several U.S. projects, including in Arizona and Texas.
​Moving forward, the company aims to expand the system’s compatibility with other module and tracker technologies. It is also working on developing additional robots to automate the final installation step that still requires workers.
​

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KITCHENER, ON, Nov. 13, 2026 /PRNewswire/ — CS PowerTech Inc., a subsidiary of Canadian Solar Inc. (NASDAQ: CSIQ) and the largest silicon PV solar manufacturer in the U.S., today announced that it has received an AA rating from Terawatt PV Research in its Q3 2026 U.S. Solar Manufacturing report, underscoring the Company's growing domestic manufacturing footprint and commitment to the U.S. solar supply chain.
The AA rating provides independent recognition of CS PowerTech's manufacturing platform and its focus on building a scaled, globally competitive, and resilient domestic solar supply chain. CS PowerTech is one of only three manufacturers, out of 22 evaluated, to receive a rating of AA or higher. The report assessed manufacturers based on their U.S. production output and capital expenditure.
Finlay Colville, founder of Terawatt PV Research and co-host of the recent Solar Manufacturing USA 2026 event in Austin Texas, said, “Canadian Solar's AA rating in the Q3 2026 release of the Solar Manufacturing USA Quarterly report reflects the company's significant investments in new solar cell and module facilities in Indiana and Texas.”
Rusty Schmit, President of CS PowerTech Inc., added, “We're building a U.S. manufacturing platform designed to compete for the long term, and this AA rating is an important recognition of our progress. Our strategy is straightforward: invest in advanced, reliable technology and build the domestic manufacturing capabilities our customers need. I'm proud of what our team has accomplished in Texas and Indiana and eager to build on our momentum.”
The recognition comes at an important time for the U.S. solar industry, as customers, developers, financial institutions, and other stakeholders increasingly look beyond manufacturing capacity alone, placing greater emphasis on the quality, resilience, and long-term credibility of their manufacturing partners.
About CS PowerTech Inc.
CS PowerTech is one of the largest North American PV manufacturers and energy storage solutions providers, offering complete turnkey solutions for solar and energy storage. The company is a subsidiary of Canadian Solar Inc. (NASDAQ: CSIQ) and operates U.S.-based manufacturing and sales operations for solar modules and solar cells in Mesquite, Texas, and Jeffersonville, Indiana, respectively. CS PowerTech is focused on building a cohesive and scalable U.S. manufacturing and sales ecosystem that employs more than 3,000 Americans, supports local communities, accelerates clean energy adoption, and reinforces long-term American energy leadership and independence.
About Canadian Solar Inc.
Canadian Solar is one of the world's largest solar technology and renewable energy companies. Founded in 2001 and headquartered in Kitchener, Ontario, the Company is a leading manufacturer of solar photovoltaic modules; provider of solar energy and battery energy storage solutions; and developer, owner, and operator of utility-scale solar power and battery energy storage projects. Over the past 25 years, Canadian Solar has successfully delivered nearly 180 GW of premium-quality solar photovoltaic modules to customers across the world. Through its energy storage solutions business e-STORAGE, Canadian Solar has shipped over 23 GWh of battery energy storage solutions to global markets and had a contracted backlog of $3.5 billion as of June 30, 2026. Since entering the project development business in 2010, Canadian Solar has developed, built, and connected approximately 12.4 GWp of solar power projects and 6.4 GWh of battery energy storage projects globally. Its geographically diversified project development pipeline includes approximately 22 GWp of solar and 84 GWh of battery energy storage capacity in various stages of development. Canadian Solar is one of the most bankable companies in the solar and renewable energy industry, having been publicly listed on the NASDAQ since 2006. For additional information about the Company, follow Canadian Solar on LinkedIn or visit www.canadiansolar.com.
Safe Harbor/Forward-Looking Statements 
Certain statements in this press release, including those regarding the Company's expected future shipment volumes, revenues, gross margins, and project sales, are forward-looking statements that involve a number of risks and uncertainties that could cause actual results to differ materially. These statements are made under the “Safe Harbor” provisions of the U.S. Private Securities Litigation Reform Act of 1995. In some cases, you can identify forward-looking statements by such terms as “may,” “will,” “expect,” “anticipate,” “future,” “ongoing,” “continue,” “intend,” “plan,” “potential,” “prospect,” “guidance,” “believe,” “estimate,” “is/are likely to,” or similar expressions, the negative of these terms, or other comparable terminology. These forward-looking statements include, among other things, our expectations regarding global electricity demand and the adoption of solar and battery energy storage technologies; our growth strategies, future business performance, and financial condition; our transition to a long-term owner and operator of clean energy assets and expansion of project pipelines; our ability to monetize project portfolios, manage supply chain fluctuations, and respond to economic factors such as inflation and interest rates; our outlook on government incentives, trade measures, regulatory developments, and geopolitical risks; our expectations for project timelines, costs, and returns; competitive dynamics in solar and storage markets; our ability to execute supply chain, manufacturing, and operational initiatives; access to capital, debt obligations, and covenant compliance; relationships with key suppliers and customers; technological advancement and product quality; and risks related to intellectual property, litigation, and compliance with environmental and sustainability regulations. Other risks are described in the Company's filings with the Securities and Exchange Commission, including its annual report on Form 20-F filed on April 10, 2026. Although the Company believes that the expectations reflected in the forward-looking statements are reasonable, it cannot guarantee future results, level of activity, performance, or achievements. Investors should not place undue reliance on these forward-looking statements. All information provided in this press release is as of today's date, unless otherwise stated, and Canadian Solar undertakes no duty to update such information, except as required under applicable law.
Canadian Solar Inc. Investor Relations Contact
Wina Huang
Investor Relations
Canadian Solar Inc.
[email protected]

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Metlen starts construction at 252MW/375MWh solar-plus-storage plant in Greece  PV Tech
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PVH Showcases AxoneDuo Infinity Solar Tracker at REI Expo 2026, Strengthens Engagement with Indian Solar Industry  SolarQuarter
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The cost-effectiveness logic of Chinese photovoltaic equipment going global has failed under rules such as FEOC.
Energy Foresight learned that on November 10, German equipment manufacturer SINGULUS announced that it has signed the first heterojunction production line supply contract with SpaceX, with an amount exceeding 60 million euros.
Chinese equipment manufacturers were not included in this order, and the problem is not the quotation. Tesla’s factory construction application documents in Texas show that the $10.1 billion investment is highly dependent on subsidies to be economically viable; 45X grants subsidies based on output, with a total of $0.11 per watt for batteries and modules. Calculated based on the 100GW target, the annual credit is about $11 billion.
The FEOC clause (Foreign Entity of Concern rule) ties the credit eligibility to the identity of suppliers, and Chinese equity, debt or technology licensing of suppliers may invalidate the credit. Three weeks ago, SINGULUS just cleared all Chinese debts, equities and supervisors, and the payer is SpaceX.
What this order buys is a supplier entity that can pass the compliance review. The logic of Chinese equipment going global by relying on cost-effectiveness has failed entirely for the first time.
The buyer did not never have the idea of purchasing Chinese equipment. On March 20, 2026, Reuters reported that Tesla was negotiating a Chinese equipment procurement of about 2.9 billion US dollars, with Maxwell, Jiejia Weichuang and Laplace listed as candidates. After the news of the inspection of “two groups of people, one industrial chain” spread in early February, GCL, TCL Zhonghuan and Gaice successively confirmed that they had contacts, but in nine months, clarification announcements came one after another, and the order announcement never appeared.
The crux is not the progress of negotiations. 8.6 billion US dollars of Tesla’s factory is for equipment, which is a one-time capital expenditure; The 45X credit is issued annually based on output and runs through the whole life cycle of the project. No matter how cheap Chinese equipment is, what it saves is only a small part of the former.
The Ministry of Finance and the IRS confirmed in Notice 2026-15 that intellectual property licensing can constitute “effective control” under specific conditions; equity and debt relationships are separately identified according to the thresholds in the FEOC/PFE rules. Once a supplier is linked to a prohibited foreign entity, the manufacturer’s 45X credit has to be re-reviewed; the specific definition of prohibited entities still leaves room for clarification.
One is the one-time equipment price difference, and the other is the cash flow issued annually that determines whether the project can be established. The two are not in the same order of magnitude, and the procurement department has no reason to exchange the latter for the former.
Therefore, Chinese equipment manufacturers are excluded, which has nothing to do with product performance. Its appearance on the supplier list will prevent the buyer from getting the money that makes the project viable. What the buyer avoids is its own compliance risk, and the technical selection has not happened at all. Those “contacts”, “inspections” and “candidates” in the past nine months have never been the prelude to the order — This transaction structure cannot pass the review from the very beginning. The market misread the clarification announcements one by one as “the negotiation has not been completed”.
Since identity determines eligibility, the winner must be an entity that is clean under the regulatory caliber. SINGULUS achieved revenue of 60.4 million euros in the first nine months of 2026, with EBIT (earnings before interest and tax) of 1.2 million euros, 312 employees, and 47.1 million euros of orders on hand as of September 30 — a 60 million euro production line exceeds all its orders on hand. Such a scale has no advantages in production capacity or delivery.
The series of actions it completed three weeks ago correspond item by item to the identification clues of FEOC.
On October 21, 2026, SINGULUS borrowed 22.75 million euros of subordinated secured loans, all of which were used to pay off the debts to Triumph Technology Group (Triumph under China National Building Material) and its related parties, and the related 15.3 million euros of orders were written off; Triumph transferred 16.75% of its shares to German investors, and the dispatched supervisor resigned on the same day.
The announcement on November 10 made it clear that the “technical partner” who paid twice in March and October is SpaceX. Debt, equity and control are exactly the three calibers repeatedly cited in the identification of “Foreign Entity of Concern”. The announcement on October 21 also specially thanked China National Building Material for its many years of cooperation, saying that the two sides have jointly made progress in thin-film solar technology and realized industrialization.
SpaceX spent twice in this transaction: One is to transform the seller into a qualified entity, and the other is to place an order with this entity. The first sum determines whether the second sum can be spent.
Twenty days, from clearing accounts to signing the contract, there is no room for price comparison in the middle. The premise of the first order transaction is to first have a legal entity that can pass the review, and equipment procurement comes after this matter. What is cleared is the legal relationship, and the technical relationship remains in the announcement.
The rule examines the legal relationship that can be filled in the form, and the technical source is not in the form. SINGULUS SOLAR GmbH under the group was established in June 2024 as a joint venture with Jinchen Co., Ltd., with Jinchen holding 49% of the shares, which is exactly engaged in TOPCon and HJT turnkey full lines (the equipment manufacturer completes installation and commissioning, and the customer can start operation after taking over). This shareholding ratio was listed in the list of participating and holding subsidiaries in the 2026 semi-annual report.
The Chinese majority shareholder left, but the Chinese joint venture partner still remains. This practice in the industry has become routine: In order to avoid the 25% shareholding identification line, Chinese-funded enterprises such as Canadian Solar, JA Solar and LONGi have reduced their Chinese-funded shareholding to 24.9% in some overseas projects. Compliance has become a structure that can be designed. Chinese manufacturers going global compete on transaction arrangements instead of equipment quotations.
The trouble is that the most realistic road is watched at both ends. Joint venture plus technology licensing is one of the few arrangements that can protect both the market and technology at present; FEOC lists Chinese technology licenses that constitute effective control as risks, while China’s Announcement No. 48 lists HJT P-type technologies and equipment with AM0 efficiency ≥ 20.5% as restricted exports. The registration before export takes effect immediately, and perovskite tandem is planned to be prohibited from export. AM0 is the illumination standard outside the atmosphere, which points exactly to the space scenario. One list checks your identity to enter, and the other checks what you can take out, clamping the transaction structure itself.
In the market on November 11, this change was not priced. Maxwell shares fell sharply, Jiejia Weichuang and Laplace moved lower synchronously; on the other side, Yamatong had three consecutive daily limits, Zerun New Energy rose 20.01%, Jinchen Co., Ltd. rose 9.98%, and ten stocks hit the daily limit. The ones that fell are the leading equipment manufacturers that have included the overseas order expectation into their valuations, and the ones that rose are the concept stocks without overseas orders.
Among them, Jinchen Co., Ltd. is a 49% shareholder of SINGULUS’s joint venture, which should have been the most direct beneficiary target of the “eligibility logic”, but the market attribution on that day fell on the “Musk concept”. The market is still pricing this news according to the old framework: equipment stocks depend on orders, and concept stocks depend on headlines. The rise and fall on that day measured the order expectation and concept popularity, but did not measure the rule itself. The rule has changed, but the pricing method has not.
SINGULUS officially wrote that after the cooperation is gradually expanded, it will “support more than 100GW of production equipment”, and what is implemented is a production line to be delivered in the first half of 2027; Tesla’s $10.1 billion factory will not be put into commercial operation until the first quarter of 2029. A heterojunction industry insider quoted by Shanghai Securities News said that the feasibility of Chinese photovoltaic enterprises participating in the construction of this factory is “relatively low”.
The 14 US tariff exemptions for photovoltaic equipment are only extended to January 9, 2027, and the consultation period for China’s “Catalogue” draft ends on November 15. The most noteworthy date among these dates is November 15: which efficiency gear the official draft sets for HJT restrictions determines whether Chinese manufacturers can still incorporate the technology into a compliant structure. Before that, no matter how many rumors of “Musk’s team coming for inspection” there are, they cannot be exchanged for an order announcement.
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NAED Energy Holding, headquartered in Miami, reported that its PV-1 PECVD-V platform for solar cell production achieves a rated throughput of 96,000 wafers per hour, twice the 48,000 wafers per hour delivered by the company’s earlier XL-class equipment. The vertical in-line deposition system integrates plasma-enhanced chemical vapor deposition and physical vapor deposition onto one shared-carrier line.
Wafers are conveyed in an upright position through every stage, and rather than flipping each wafer individually, the whole carrier is raised and rotated 180 degrees to expose the second side, a design NAED says minimizes direct wafer handling between process steps. The line is built to manufacture the company’s T2X two-terminal perovskite/heterojunction tandem cell, which carries a 30% cell efficiency target, and NAED intends to offer the cells for both terrestrial and space use together with glass-glass modules beginning at 600 W.
Of the line’s 13 process tools, six are finished while the other seven remain in production, according to the company. NAED stated that it engineers the tools internally, machines them at its own US facility, and is currently accepting reservations from manufacturers for production tool slots.
Malcom Longair, who leads media and development at NAED, said that adopting a vertical orientation enabled the company to double throughput and to design the line around tandem cells from the start instead of adapting tandem capability onto a platform built for another purpose.
NAED characterized the 96,000 wafers-per-hour number as a rated throughput and the 30% figure as a target efficiency, noting that complete specifications and measured station test data are available to qualified manufacturers upon request. The announcement leaves out wafer size, yield and uptime, and does not identify customers, investors, executives or where the production facility is located.
According to the company, pending US patent applications cover the line, the carrier-turning mechanism, the wafer-retention carrier and the T2X cell. NAED also said its intellectual property was appraised at $179 million using an ASC 820 Level 3 fair-value methodology, an accounting standard that relies on unobservable inputs such as management assumptions. The appraiser was not named.
NAED presents itself as an aerospace, engineering and utility-energy firm with operations across South Florida, New York and Nevada, plus a presence in Indonesia.
Laboratory results for perovskite-silicon tandem cells have already moved past NAED’s target. Longi established a world record of 35.5% efficiency for such a cell in July. In the US, Tandem PV started commercial perovskite-silicon manufacturing in California in April and has since unveiled a demonstration module with 30.4% efficiency.
This report provides an in-depth analysis of the Perovskite Solar Cells market in United States, including market size, structure, key trends, and forecast. The study highlights demand drivers, supply constraints, and the competitive landscape across the value chain.
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Solar Power for More UK Homes – EcoFlow Launches Its STREAM Plug-in Solar Kit  Yahoo Finance
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India’s total installed power generation capacity reached around 560 GW in October 2026, more than doubling from 249 GW in 2014. Non-fossil fuel sources now account for 55% of the country’s installed capacity. Solar power has emerged as the largest renewable energy segment, with installed capacity reaching nearly 175 GW, supported by rapid expansion of rooftop solar and large-scale renewable projects.
New Delhi, Nov 13: India’s total installed power generation capacity has increased to around 560 GW in October 2026, more than doubling from 249 GW in 2014, according to an official factsheet.
The country’s energy mix is also undergoing a significant transformation, with non-fossil fuel sources accounting for 55% of total installed power capacity.
India had 308 GW of non-fossil fuel capacity as of July 31, 2026, making it the world’s third-largest country in terms of installed renewable energy capacity.
The country attracted investments of USD 63.7 billion in the renewable energy sector between July 2024 and June 2026, reflecting growing investment in clean energy infrastructure.
Solar energy has emerged as the largest component of India’s renewable energy capacity. Installed solar power capacity reached nearly 175 GW as of October 31, 2026, compared with just 2.8 GW in 2014.
India added more than 37 GW of solar capacity in 2025, becoming the world’s second-largest solar growth market that year. This was higher than the 34 GW added by the United States.
The PM Surya Ghar: Muft Bijli Yojana, launched in February 2024 with an outlay of Rs 75,021 crore, aims to install rooftop solar systems in one crore households.
As of November 2, 2026:
The programme is aimed at expanding household-level solar generation and reducing dependence on conventional electricity sources.
The government approved the Pradhan Mantri Surya Sarovar Yojana (PM-SSY) on July 31, 2026, with a financial outlay of Rs 5,070 crore.
The scheme seeks to expand India’s solar energy development through floating solar photovoltaic projects integrated with energy storage systems.
It targets the development of 5,000 MW of floating solar PV projects, adding another dimension to the country’s renewable energy expansion.
India’s wind energy sector also recorded significant progress during FY26.
The country added 6.05 GW of wind power capacity in FY26, its highest-ever annual addition. This was 46% higher than the capacity added in FY25.
The expansion of wind power is contributing to the diversification of India’s renewable energy mix and strengthening its clean electricity generation capacity.
India’s bio-power capacity stood at 11.75 GW as of October 29, 2026.
The compressed biogas (CBG) ecosystem is also expanding, with 839 CBG plants registered as of November 2, 2026.
To strengthen small hydro power development, the government approved the Small Hydro Power (SHP) Development Scheme in March 2026 for the period FY27 to FY31.
The scheme has an outlay of Rs 2,584.60 crore and aims to add approximately 1,500 MW of small hydro capacity through projects ranging from 1 MW to 25 MW.
It particularly supports projects in hilly and North-Eastern regions, where small hydro installations can contribute to local power generation.
India’s clean energy expansion is being supported by domestic manufacturing, energy storage and emerging technologies.
Alongside solar, wind, hydro and bio-energy, the government is focusing on technologies such as green hydrogen and geothermal energy to diversify the country’s future energy system.
The broader strategy aims to strengthen energy security while increasing the share of renewable and other non-fossil sources in India’s power generation capacity.
India’s installed power capacity reaching 560 GW marks a major expansion of the country’s electricity infrastructure since 2014. With non-fossil sources accounting for 55% of installed capacity, rapid solar growth, record wind additions and new support for floating solar and small hydro projects, India is continuing to diversify its energy mix and strengthen its clean energy ecosystem.

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Pig prices are still hovering at the bottom, pig farming enterprises are busy stopping losses, but Tongwei has decided to invest 1.441 billion yuan to take over a pig enterprise on the verge of debt crisis.
On November 9, according to the announcement of Tech-Bank Food, Tongwei Group has been confirmed as the restructuring industrial investor of the company, and the two parties have signed the “Restructuring Investment Agreement”. According to the agreement, Tongwei Group plans to acquire 1.47 billion transferred shares of Tech-Bank Food at a price of 0.98 yuan per share, with a total investment of 1.441 billion yuan. After the restructuring is completed, Tongwei Group is expected to hold 27.8% of the shares of Tech-Bank Food and become the controlling shareholder of the listed company.

This is not an ordinary industrial merger and acquisition. By the end of the third quarter of 2026, Tech-Bank Food had total assets of about 9.118 billion yuan, total liabilities of about 8.925 billion yuan, and an asset-liability ratio close to 98%. For this former leading enterprise in the pig farming industry, the most urgent task at present is not expansion, but how to survive from the debt quagmire.
But Tongwei obviously saw the other side. The pig cycle is still at the bottom, the industry capacity is continuously adjusted, and the former breeding leaders have begun to find new ways out through restructuring. Liu Hanyuan chose to take action at this time and take over Tech-Bank as an industrial investor, which is obviously not just a financial investment.
The photovoltaic industry has not yet emerged from the trough, and the pig industry has fallen into a new round of adjustment. Two industries, two cycles, Liu Hanyuan chose to place new bets in the trough period.
At the bottom of this photovoltaic cycle, he seems unwilling to win only once.
Tongwei is not the first industrial capital to take over distressed pig enterprises at the bottom of the pig cycle.
In 2023, Twins Group did a similar thing. At that time, Zhengbang Technology, a former pig farming giant, was deep in debt crisis, suffered huge losses for two consecutive years, its pig breeding business shrank sharply, its liabilities once exceeded its assets, and it even reached the edge of bankruptcy and restructuring.
Twins finally chose to take over. In December 2023, Twins Group officially became the controlling shareholder of Zhengbang Technology, and jointly provided 4.34 billion yuan of restructuring investment funds with 16 financial investors.
This transaction later became a representative case in the restructuring of pig enterprises. Twins did not simply regard Zhengbang as a listed company waiting for debt repayment, but brought its own feed supply system, breeding management experience and industrial resources into it. In 2024, Twins helped Zhengbang resume production at 59 pig farms and 16 feed mills, with 4.1466 million pigs slaughtered in the whole year, operating revenue reaching 8.87 billion yuan, a year-on-year increase of 26.86%, and achieved positive operating profit in the third quarter of that year.
For Twins, the value of this transaction lies not only in obtaining the control of a listed company, but also in revitalizing a large number of previously suspended breeding assets with relatively limited restructuring investment, and rapidly expanding its own industrial scale.
This also shows the market that distressed enterprises at the bottom of the pig cycle do not mean that all assets have lost their value. For industrial capital with feed supply, breeding management and financial strength, the burden that others are eager to get rid of may also become an opportunity for their own expansion.
Three years later, a similar thing happened to Tongwei.
However, the relationship between Tongwei and Tech-Bank is far more complicated than a single restructuring investment.
As a giant that started with feed and then crossed into the photovoltaic industry, Tongwei began to cooperate with Tech-Bank as early as 2021. At that time, Tech-Bank was in the stage of business adjustment, hoping to divest feed assets and concentrate resources on developing pig breeding. Tongwei hoped to expand the scale of its feed business. The two sides hit it off, and Tongwei acquired a number of aquatic feed and pig feed enterprises under Tech-Bank for 1.271 billion yuan, and agreed to carry out long-term pig feed supply cooperation.
After this transaction, the connection between the two sides did not break off.
In 2024, Tech-Bank transferred 30% of the equity of its core pig breeding platform Shiji Bio to Tongwei Agriculture at a price of 1.65 billion yuan. After the transaction is completed, Tongwei will further enter the field of core pig breeding, and Tech-Bank will get cash back by selling equity.
From feed to breeding, and then to the current pig farming, the industrial relationship between Tongwei and Tech-Bank has actually lasted for five years. However, in the past, Tech-Bank kept selling part of its assets to Tongwei, and now it is Tongwei’s turn to prepare to incorporate Tech-Bank into its industrial map as a whole.
But interestingly, Tongwei did not show an eager attitude to buy the dip this time.
The restructuring process of Tech-Bank has actually lasted for quite a long time. Previously, the company had signed restructuring investment agreements with other industrial investors and financial investors, but the relevant investors later withdrew one after another, and the restructuring work once stagnated. It was not until November this year that Tongwei finally became the new industrial investor.
Judging from the transaction arrangement, Tongwei has also left a lot of leeway for itself.
The 1.441 billion yuan is not directly used to purchase shares from the original shareholders of Tech-Bank, but obtained through the transfer of shares from capital reserve. Tech-Bank plans to transfer about 3.066 billion shares, of which 1.47 billion shares will be conditionally transferred to Tongwei, and the remaining shares will be used to pay off debts. The investment fund paid by Tongwei will also be mainly used for bankruptcy expenses, common benefit debts and creditor’s rights repayment, rather than directly entering the pockets of original shareholders.
It is more noteworthy that Tongwei has not promised to unconditionally bear all the capital gaps of Tech-Bank. It requires financial investors to participate together and undertake the responsibility of making up for the investment funds that cannot be in place on time; at the same time, Tongwei promises that the proportion of its own funds for this restructuring investment will not be less than 50%, and it has voluntarily extended the lock-up period of the obtained shares to 60 months. According to the agreement, Tongwei also needs to pay an investment deposit of about 288 million yuan in advance, accounting for 20% of the total investment amount.
This means that although Tongwei is willing to take the role of industrial investor, it does not intend to take all the risks on itself. It needs other investors to contribute capital together, needs the court to finally approve the restructuring plan, and needs the original assets of Tech-Bank to truly resume operation after restructuring.
To a certain extent, this transaction is similar to Twins’ restructuring of Zhengbang: both are industrial capital acquiring the existing assets of distressed enterprises through restructuring during the industry trough. But Tongwei’s strategy obviously puts more emphasis on the synergy between industrial chains and the control of investment risks.
After all, Tongwei itself has not yet emerged from the trough of the photovoltaic industry. The capacity and capital pressure formed by continuous expansion in the past few years still exists, and the group level has continuously suffered large operating losses. In this context, 1.441 billion yuan is not a number that can be completely ignored.
Rather than saying that Liu Hanyuan is taking a big gamble on a financial investment at the bottom of the pig cycle, it is better to say that he is using a relatively prudent way to reoccupy a piece of agricultural industrial territory for Tongwei.
If the restructuring of Tech-Bank is a step for Tongwei to re-integrate the agricultural industrial chain, then the ongoing acquisition of Qinghai Lihao is another bet by Liu Hanyuan in the photovoltaic industry.
In fact, this is not the first time that Tongwei has tried to acquire competitors during the trough of the photovoltaic industry.
In August 2024, Tongwei Co., Ltd. announced that it plans to acquire no less than 51% equity of Runyang Co., Ltd. through capital increase and equity acquisition at a price of no more than 5 billion yuan.
Runyang used to be one of the top three enterprises in the world in terms of photovoltaic cell shipments, and has layout in multiple links of the photovoltaic industrial chain. But as the industry entered a cycle of overcapacity, this former star enterprise also fell into operating difficulties, with pressure on the capital chain and some production bases suspended.
For Tongwei, which was also in the industry trough at that time, this was originally a very attractive transaction: with an investment of no more than 5 billion yuan, it had the opportunity to obtain the control of a former global leading cell enterprise.
But this acquisition, which was highly expected by the outside world, was not finally reached.
In February 2025, Tongwei announced the termination of the intentional capital increase to Runyang, on the grounds that after multiple rounds of due diligence and business negotiations, all parties to the transaction still failed to reach an agreement on some business terms.
Although Tongwei withdrew, the story left by Tongwei to Runyang did not end.
As early as when Tongwei proposed the acquisition, Yueda Group under Yancheng State-owned Assets had already participated in it, invested 1 billion yuan in advance, and gradually intervened in the operation and management of Runyang. The original arrangement was that after Tongwei completed the transaction, it would acquire the equity obtained by Yueda’s previous capital increase.
After Tongwei withdrew, Runyang continued to rely on state-owned assets support and supplier debt-to-equity swap for relief.
In February 2025, Jiejia Weichuang and Autowell subscribed for Runyang’s shares with 720 million yuan and 180 million yuan of creditor’s rights respectively, and obtained a total of about 10.11% of the equity. Since then, equipment enterprises such as Tuosida, Roboteck, Gaote Co., Ltd. and Jingshan Light Machinery have also participated in capital increase or debt-to-equity swap one after another.
The former equipment suppliers have successively become shareholders of Runyang. By the end of June 2025, the total amount of debt converted into shares involved by the six equipment enterprises reached 1.31 billion yuan, plus the 1 billion yuan previously invested by Yueda, Runyang has obtained a total of about 2.31 billion yuan of capital and debt relief support.
However, these capital and debt adjustments did not make Runyang quickly get out of the trough. In 2025, Runyang achieved an operating revenue of 11.407 billion yuan, but still had a net loss of 1.601 billion yuan.
In a sense, Runyang’s subsequent experience also explains why Tongwei did not insist on completing that acquisition: although the assets at the trough of the photovoltaic industry are cheap, the debts, operating losses and continuous investment that need to be undertaken after taking over are not necessarily easier than the acquisition price itself.
However, giving up Runyang does not mean that Liu Hanyuan has given up mergers and acquisitions.
In 2026, Tongwei turned its attention to Qinghai Lihao. Unlike Runyang, which spans multiple links of the photovoltaic industrial chain, Lihao mainly focuses on polysilicon business, and currently has an annual production capacity of 150,000 tons of photovoltaic high-purity crystalline silicon. For Tongwei, which itself is one of the global leading polysilicon enterprises, this is a more familiar industrial asset.
In March this year, Tongwei disclosed the transaction plan for acquiring 100% equity of Lihao Qingneng, and the estimated total transaction consideration is no more than 4.8 billion yuan. If the transaction is successfully completed, Tongwei will further expand the scale of silicon material production capacity on the original basis, and integrate Lihao’s resources in green energy, high-purity crystalline silicon and other aspects.
But like Runyang, Lihao is also in operating loss.
In 2025, Lihao Qingneng had a net loss of 379 million yuan; in the first three quarters of 2026, the loss further expanded to 676 million yuan. Under the background that the photovoltaic industry has not yet resumed profitability, this acquisition also means that Tongwei needs to bear considerable operating pressure.
Therefore, even if the two parties have launched the transaction, Tongwei is not in a hurry to finalize the final plan.
In September this year, Tongwei announced that due to changes in the market environment of the photovoltaic industry, all parties to the transaction still have differences on specific terms, and it is temporarily unable to promote the review of the shareholders’ meeting according to the original plan. Although the transaction subsequently passed the anti-monopoly review of concentration of operators, the price and specific plan still need further negotiation.
By the end of October, Tongwei adjusted the pricing benchmark date for issuing shares to purchase assets, and lowered the issue price from 15.20 yuan per share to 9.12 yuan per share. As of the beginning of November, the two sides have not finalized the final transaction plan.
From Runyang to Lihao, Liu Hanyuan’s M&A attempts in the photovoltaic industry have always been accompanied by repeated negotiations and trade-offs. Even if he is optimistic about the long-term value of the assets, he will not force a shot to complete the acquisition if the transaction conditions are not appropriate.
But more noteworthy than this prudence is his unstopping willingness to expand.
In the past two decades, Liu Hanyuan brought a feed enterprise into the photovoltaic industry, and finally pushed Tongwei to an important position in the global photovoltaic industrial chain. Today, the era of high growth in the photovoltaic industry has temporarily come to an end, and overcapacity and price competition are testing every enterprise again.
Liu Hanyuan once again chose to look for opportunities when the industry was at its most difficult.
Whether it is the uncompleted Runyang, the ongoing Lihao, or Tech-Bank that has just signed the restructuring agreement, these transactions all show that Liu Hanyuan is not satisfied with maintaining the industry position that Tongwei has already achieved.
After all, Liu Hanyuan, who has won once with photovoltaics, seems unwilling to win only once.
This article is from the WeChat official account “Super Focus foci”, written by Sean, and published with authorization from 36Kr.
该文观点仅代表作者本人，36氪平台仅提供信息存储空间服务。
36kr Europe (eu.36kr.com) delivers global business and markets news, data, analysis, and video to the world, dedicated to building value and providing business service for companies’ global expansion.
© 2024 36kr.com. All rights reserved.

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New Delhi, Nov 13 (IANS) India’s total installed power generation capacity reached around 560 gigawatts in October 2026, more than doubling from 249 GW in 2014, with non-fossil fuel sources accounting for 55 per cent of the capacity, an official factsheet said on Friday.
India had 308 GW of non-fossil fuel capacity as of July 31, 2026, ranking third globally in renewable energy installed capacity. The country invested $63.7 billion in its renewable energy sector between July 2024 and June 2026.
Solar power has emerged as the largest component of renewable capacity, with installed capacity reaching nearly 175 GW as of October 31, 2026, compared with 2.8 GW in 2014.
India added over 37 GW in 2025, becoming the world’s second-largest solar growth market that year, compared with 34 GW added by the United States.
Under the PM Surya Ghar scheme, launched in February 2024 with an outlay of Rs 75,021 crore to cover one crore households, 65.26 lakh households had received rooftop solar installations by November 2, 2026.
Approximately Rs 35,800 crore in subsidy has been transferred to the beneficiaries. Nearly 21 lakh households have received zero electricity bills till October, 2026.
Cumulatively, 19.1 GW of rooftop solar capacity has been commissioned under the scheme so far.
The government approved the Pradhan Mantri Surya Sarovar Yojana (PM-SSY) on July 31, 2026 with an outlay of Rs 5,070 crore. It adds a new dimension to India’s solar expansion with the development of Floating Solar Photovoltaic Projects with Energy Storage Systems and targets 5,000 MW of Floating Solar PV projects.
India added 6.05 GW in FY26, its highest-ever annual wind capacity addition and 46 per cent higher than FY25.
Bio-power capacity stands at 11.75 GW as of October 29, 2026. The CBG ecosystem has also expanded, with 839 CBG plants registered as of November 2, 2026.
The government has approved the Small Hydro Power (SHP) Development Scheme in March 2026 for FY 27 to FY31, with an outlay of Rs 2,584.60 crore. The scheme aims to add approximately 1,500 MW of small hydro capacity through projects of 1–25 MW. It particularly supports projects in hilly and North-Eastern regions.
“India is building an energy system powered increasingly by clean, renewable sources. Expanding solar, wind, hydro and bio-energy capacity is being supported by domestic manufacturing, energy storage and emerging technologies such as green hydrogen and geothermal energy,” the statement noted.
—IANS
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Credit: EcoFlow
EcoFlow's Stream Plug-in Solar Kit is now available to buy in the UK, giving households a new way to generate their own electricity without the need for rooftop solar installation. The system uses solar panels and a microinverter to convert sunlight into electricity that can be used to power everyday appliances.
The launch follows changes to UK plug-in solar regulations introduced on 27th August 2026, which have opened up new possibilities for more flexible home solar systems. EcoFlow first announced that the kit would be available to pre-order on 20th August, but general availability beings today.
The EcoFlow Stream Plug-in Solar Kit starts at £599 and is available now via the EcoFlow UK website.
Credit: EcoFlow
According to EcoFlow, the Stream kit can generate up to 900kWh of electricity annually, potentially saving households up to £187 a year on their energy bills. Its microinverter can also start operating with as little as 3W of solar input, helping it make use of available daylight even in overcast conditions and at different times of the day.
EcoFlow also says the Stream meets the new UK requirements, with its microinverter registered on the Energy Networks Association (ENA) Type Test Register. It also has an IP67 rating for dust and water resistance and is designed to operate in temperatures ranging from -40°C to 65°C. The microinverter comes with a 10-year warranty, whilst the EcoFlow 500W solar panel is covered for 15 years.
Credit: EcoFlow
If you're considering buying one, it's worth knowing that the system is designed to connect to a compatible UK socket, allowing the electricity it generates to be used by household appliances during daylight hours. However, installation and use must still meet the relevant UK electrical safety requirements, and renters or flat owners may need permission before setting up a system at their property.
You can also read our guide to five important things to know before investing in EcoFlow's new home battery if you're considering other ways to make the most of solar energy at home.
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PR Newswire
High-efficiency n-type modules will support long-term renewable-energy generation in demanding South African operating conditions
BEIJING, Nov. 12, 2026 /PRNewswire/ — JA has been selected as the exclusive photovoltaic (PV) module supplier for Teraco’s 120MW Sediba solar project in Parys, in South Africa’s Free State province. The company will supply the high-efficiency n-type modules required for large-scale renewable energy development.

JA’s PV modules installed at the Sediba solar project
Owned by Teraco, a provider of carrier-, cloud- and vendor-neutral data centre environments for colocation services, Sediba will generate renewable electricity that will be fed into the national grid. The corresponding renewable energy allocation will be supplied to Teraco’s data centre operations through a power-wheeling arrangement with local municipalities and Eskom.
The project is expected to generate more than 354,000MWh of renewable electricity annually once operational, with operations scheduled to begin by the end of 2026.
Engineered for demanding South African conditions
The Sediba site presents the type of operating environment in which long-term PV performance is critical. High summer temperatures, intense solar irradiation, dust, seasonal thunderstorms and significant temperature variations can place sustained pressure on solar modules over their operating life.
Following technical evaluation and testing, JA was selected as the project’s exclusive module supplier based on the performance, durability and long-term reliability of its PV technology.
JA’s high-efficiency n-type modules are engineered to maintain strong energy output while withstanding challenging environmental and mechanical conditions, including high temperatures, hail and heavy loads. These characteristics are particularly important for utility-scale projects designed to operate reliably over several decades.
For Sediba, module selection therefore extends beyond initial power output. Long-term degradation, mechanical integrity, product consistency and the ability to perform across changing environmental conditions are all fundamental to the project’s lifetime generation profile.
Quality and traceability across the module lifecycle
JA combines module technology with a globally consistent approach to manufacturing quality and supply-chain management.
Key materials used in its modules, including glass and soldering ribbon, can be traced throughout the manufacturing process. Detailed environmental and supply-chain records provide further visibility across the product lifecycle.
This combination of manufacturing control, material traceability and product testing is designed to give project owners greater confidence in module quality and long-term performance, particularly for large-scale installations where consistency across thousands of modules is essential.
Supporting lower-carbon infrastructure
JA’s involvement in Sediba also reflects its broader focus on reducing the environmental impact of solar generation across the full value chain.
The company’s climate targets have been validated by the Science Based Targets initiative, while its manufacturing operations incorporate measures designed to reduce carbon emissions associated with PV production. JA also operates nationally recognised green factories as part of its approach to more sustainable manufacturing.
By combining lower-carbon manufacturing practices with high-efficiency module technology, JA aims to extend the environmental benefits of renewable energy beyond electricity generation itself.
For customers developing large-scale renewable-energy projects, this increasingly means considering not only how much electricity a module can generate, but also product longevity, manufacturing efficiency, supply-chain transparency and lifecycle environmental performance.
A reference project for large-scale solar in Africa
Large commercial and industrial electricity users are increasingly turning to renewable generation and wheeling arrangements to secure cleaner electricity, manage long-term energy requirements and advance sustainability objectives. In this environment, dependable PV performance and predictable lifetime generation are becoming increasingly important considerations.
JA’s role in Sediba demonstrates how proven module technology can meet these requirements at utility-scale. As the project progresses towards operation, it will showcase the application of JA’s n-type technology in one of South Africa’s demanding solar environments and further demonstrate the company’s ability to support complex, large-scale renewable-energy projects.
Generalist media, focusing on the relationship between Portuguese-speaking countries and China.
© 2026 – Copyright Plataforma Media.

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SILVER is heading for a sixth consecutive annual supply deficit in 2026, despite falling industrial demand from solar panel manufacturers, Bloomberg reported.
Demand from manufacturers, jewellers and investors is forecast to decline 5% to 1.08 billion ounces this year, according to preliminary estimates from the Silver Institute.
That would still leave a supply shortfall of 35 million ounces, although the deficit is narrowing as manufacturers reduce their use of the metal in response to high prices.
Silver demand from the solar industry is expected to fall 21% this year as manufacturers seek cheaper alternatives or reduce the amount used in photovoltaic panels.
“I would actually say that the record level of solar demand is behind us, and it will continue to weaken,” said Philip Newman, managing director of Metals Focus, which compiles the Silver Institute’s figures.
BMO Capital Markets expects solar demand to remain under pressure. The sector accounted for 55% of silver demand growth over the past five years, but could surrender roughly half those gains by 2030.
BMO also questioned conventional measures of silver deficits, arguing that investment purchases should not be treated as permanent consumption because the metal can return to the market.
Excluding investment demand, the bank expects growing surpluses.
However, industrial demand outside solar is forecast to increase 4.5% this year. Newman said renewed investor interest could also support the market after silver’s volatile performance in 2026.
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GCL Energy Technology Co., Ltd. (GCL-ET), the energy technology solutions arm of GCL Group, and QIJI Energy, CATL’s heavy-duty truck battery-swapping subsidiary, have commissioned an integrated renewable energy demonstration station in Ningde, Fujian province. The station combines a 94 kW wind-solar generation system with 930 kWh of energy storage and supports five-minute battery swapping and MW-scale supercharging. It is expected to consume 120 MWh of renewable electricity annually and cut carbon emissions by about 72 tonnes.
According to the companies, the project represents China’s first deployment of perovskite tandem PV technology in a heavy-duty truck charging and battery-swapping load scenario. Connected to GCL-ET’s virtual power plant (VPP) platform, it uses AI algorithms to dynamically coordinate PV generation, energy storage, and charging and battery-swapping loads for grid response and electricity market participation.
In July, GCL ET signed a framework agreement with the Shaoguan municipal government in Guangdong Province to develop a large-scale green computing hub (see China Solar PV News Snippets).
The China Electricity Council (CEC) reported that enterprises within its statistical scope commissioned 87 new electrochemical energy storage stations in Q3 2026, adding 12.6 GW/39.36 GWh of capacity. New installations rose 172% YoY and 3% QoQ, with Inner Mongolia, Xinjiang, Hebei, Shanxi, and Shandong ranking as the top five provinces and regions by additions.
By the end of the quarter, CEC’s statistics covered 2,363 operating electrochemical energy storage stations with a combined capacity of 143.53 GW/375.80 GWh.
In August, CEC forecast that solar power would surpass coal-fired power in installed capacity during the third quarter of 2026 (see China Solar PV News Snippets).
PV and lithium battery equipment manufacturer LEAD has delivered a full-line equipment solution to upgrade an existing TOPCon cell production line to back-contact (BC) technology for an undisclosed major PV customer. The solution uses an LPCVD + PE-Poly process compatible with existing TOPCon lines, enabling conversion into high-efficiency BC lines without constructing new factory buildings.
LEAD said the project reuses wet-process, high-temperature, film-deposition, screen-printing, and firing and automation equipment, requiring only additional laser and etching equipment. According to the company, this achieves a 75% equipment reuse rate and cuts capital expenditure by more than half compared with building a new BC line.
On the topic of TOPCon to BC line conversion, DAS Solar recently revealed that it plans to convert its 14 GW TOPCon cell production base in Xinzhou, Shanxi Province, to DBC technology (see China Solar PV News Snippets).
China’s Ministry of Commerce and General Administration of Customs have extended the suspension of export controls covering lithium batteries, specified battery materials, and related manufacturing equipment and technologies from November 11, 2026, through January 10, 2027.
The measures apply to rechargeable lithium-ion batteries with a gravimetric energy density of at least 300 Wh/kg, as well as specified LFP cathode materials, ternary cathode material precursors, lithium-rich manganese-based cathode materials, graphite anode materials, and related manufacturing equipment and technologies.
Announced in October 2025, the controls were originally scheduled to take effect on November 8, 2025, but were suspended prior to implementation and have never entered into force. The latest notice states that the suspension will run until January 10, 2027, without specifying arrangements beyond that date.
The Jiangxi provincial government has issued its 15^th Five-Year Plan (2026-2030) for developing a new energy system. The province targets total power generation capacity of more than 110 GW by 2030, including over 55 GW of new energy capacity – with an aspirational target of 60 GW – making new energy the province’s largest source of installed power capacity.
The plan calls for adding more than 18 GW of wind, solar, and biomass capacity during 2026-2030 while maintaining a new energy utilization rate above 90%. By 2030, Jiangxi aims for new-type energy storage capacity to exceed 5 GW, pumped-storage capacity to reach 3.3 GW, VPPs to provide 3 GW of regulation capacity, and demand response capability to reach 2.9 GW, while raising generation- and storage-side regulation capability by more than 40%.
TaiyangNews 2024

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PNE AG/ Key word(s): Quarterly / Interim Statement
PNE reports significant earnings growth in the first nine months of2026
12.11.2026 / 08:06 CET/CEST
The issuer is solely responsible for the content of this announcement.
Corporate news
PNE reports significant earnings growth in the first nine months of2026
Cuxhaven, 12 November 2026 – PNE AG achieved significant operational progress in the first nine months of 2026, despite a market environment that continues to be very challenging. In Germany and international markets, the company sold wind energy and photovoltaic projects with a total capacity of approximately 361MW. At the same time, PNE secured permits for additional wind energy and photovoltaic projects with capacity amounting to around 965MW.
For the first nine months of2026, the Group reported a revenue of EUR 150.7million (previous year: EUR 142.2million) and a gross profit of EUR 134.8 million (previous year: EUR 111.1 million. Normalised EBITDA increased markedly year-on-year from EUR 26.6million to EUR 45.4million. Reported EBITDA rose from EUR 26.6million to EUR 43.9million. The operating result (EBIT) also improved substantially to EUR 15.0million, compared with EUR –2.9million in the previous year.
“We achieved a lot in operational and financial terms with a strong growth compared to the first nine months in 2025, performing in a market environment that continues to be challenging. With project sales and new permits we have again demonstrated the substance and potential within our project pipeline,” comments HeikoWuttke, CEO of PNEAG. “This gives us further grounds for optimism, also in view of the ongoing sales process, in which there are several interested parties.”
Project pipeline remains at high level
The PNE Group’s project pipeline remains at a high level. As of 30 September2026, the wind energy onshore pipeline comprised projects with around14.3 GW of capacity (31 December 2025: 14.6GW). Photovoltaic projects add around 6.9GWp (31December2025: 7.2GWp). Overall, around 11.9 GW of the project pipeline is attributable to the three core markets of Germany, France and Poland.
PNE also made important progress in project sales during the first nine months. In the third quarter, the company sold the “Kuhstedt III + IV” wind farm (20.6MW) and “Wulfsdorf A” wind farm (24.4MW) in Germany and the “Karolew” wind farm (153.0MW) in Poland. PNE had already sold three additional wind farms in Germany in the first half of the year, as well as a total of five wind energy and photovoltaic projects in Poland and France.
Own generation portfolio and services on positive trend
The PNE Group’s own generation portfolio had installed capacity of 484MW. In the first nine months, the plants generated around589GWh of green electricity, reflecting around twelve per cent year-on-year growth.
The services business is also being strategically expanded. In the future market for battery energy storage operations, the PNE Group has secured three mandates with a total capacity of 281MWh. In addition, the order volume handled by the PNE Group in operations management increased from around 3,103 MW as of 31 December 2025 to around 3,288 MW of wind energy capacity.
Guidance for the 2026 financial year
After adjusting its guidance in October, PNE now expects normalised consolidated EBITDA of between EUR 65million and EUR 80million for the 2026 financial year, thereby continuing to rank among the best results of the past ten years.
The statement for the third quarter of 2026 from PNEAG is available here:
https://www.pnegroup.com/fileadmin/user_upload/Finanzberichte/2026/261111_PNE_Quarterly_Statement_Q…
About the PNE Group
The internationally operating PNE Group is listed in the SDAX. For more than 30 years, it has been one of the most experienced project developers in the area of onshore and offshore wind farms. The focus is on the development of wind energy and photovoltaic projects worldwide as well as on power generation with its own wind farms. Its portfolio covers all project planning phases, from site investigation, permitting procedures and financing through to construction, operation and repowering. As a Clean Energy Solutions Provider, the PNE Group also offers services for the entire life cycle of wind farms and photovoltaic power plants, as well as battery storage solutions for more efficient use of renewable energies.
Contact:
PNE AG
Alexander Lennemann
Head of Corporate Communications
Tel: +49 47 21 7 18 – 453
E-mail: alexander.lennemann@pnegroup.com
12.11.2026 CET/CEST Dissemination of a Corporate News, transmitted by EQS News – a service of EQS Group.
The issuer is solely responsible for the content of this announcement.
The EQS Distribution Services include Regulatory Announcements, Financial/Corporate News and Press Releases.
2433396 12.11.2026 CET/CEST

Select market data provided by ICE Data Services. Select reference data provided by FactSet. Copyright © 2026 FactSet Research Systems Inc.Copyright © 2026, American Bankers Association. CUSIP Database provided by FactSet Research Systems Inc. All rights reserved. SEC filings and other documents provided by Quartr.© 2026 TradingView, Inc.

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© 2025 THE COOL DOWN COMPANY. All Rights Reserved. Do not sell or share my personal information. Reach us at hello@thecooldown.com.
“Is this regular? Am I being unreasonable being uncomfortable.”
Photo Credit: iStock
A South Jersey homebuyer says they are facing another hurdle in an already troubled closing after receiving conflicting information about the property’s solar panels.
Parts coverage extending into 2041 appeared in both the appraisal and solar inspection reports, the buyer said — contradicting the sellers’ attorney’s statement that there was no warranty.
Whether they could sell the property’s solar renewable energy certificates, or SRECs, was among the questions the buyer brought to Reddit’s r/solar community. Since September 23, they had been seeking documentation confirming that the certificates would transfer to them, along with contractor details and warranties.
Little had arrived beyond a text from the selling agent repeating appraisal information, the buyer said. The sellers’ deadline to supply the documents was three days after a late-September request.
For the buyer, an inspection that reassured their attorney did not resolve concerns about missing paperwork. “Is this regular? Am I being unreasonable being uncomfortable?” the original poster asked.
Residential solar can lower electricity bills, and some $0-upfront solar leases may save households hundreds of dollars per month, depending on their circumstances. For readers evaluating those possibilities, EasyHome offers a free explorer tool to estimate potential savings and find vetted local installers.
Delays in the sellers’ own home purchase had held up the closing, according to the buyer, even though the sellers had insisted on a particular date. 
According to the original poster, the home’s roof was replaced after the solar array was installed. Commenters urged the buyer to investigate installation records and equipment details, including the inverter model, rather than relying solely on the inspection’s assessment of the system’s condition.
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.
Still, one commenter said their system was operating without issues in its seventh year.
Monitoring access, inverter identification, and equipment warranty certificates were among the items commenters wanted included in a written package. They also called for the original installation contract and utility interconnection approval.
One commenter suggested that a year of utility bills could help the buyer review production and electricity exports. That commenter also recommended checking the property’s permit history.
Commenters wanted clarity on any lease or power purchase agreement, as well as whether the panels were financed or paid off.
Commenters suggested a credit or escrow holdback if the records remained unavailable. They also urged the buyer to establish whether the existing net-metering terms would carry over and to document the requirements for transferring SRECs.
For buyers assessing a home’s energy setup, EasyHome also offers battery-storage exploration options. Pairing solar with suitable battery storage can help households manage electricity costs and provide backup power during outages.
Questions about warranties, system access, and contract obligations have complicated other home purchases, too. These stories follow buyers checking the solar systems that come with their homes and homeowners navigating repairs after a solar company failed.
• A buyer considering a solar roof was urged to check who backs the warranty.
• A new homeowner inherited a solar system but learned monitoring access might not transfer.
• A homebuyer says their solar array produces a third of expected power, with installers unwilling to help.
• After their solar company failed, a homeowner received a free replacement inverter but faced installation complications.
• A California buyer entered escrow before discovering a 25-year solar PPA costing $240.
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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Sungrow, a global provider of photovoltaic (PV) inverters and energy storage systems, has launched its next generation MGTL Series of three phase hybrid inverters in Sub-Saharan Africa.
The series covers a power range of 10 kW to 25 kW and combines solar and energy storage in one highly integrated solution. Sungrow says it helps households and businesses get more from their solar systems, strengthen energy resilience and simplify system deployment.
As African households and businesses invest in solar to reduce reliance on the grid and manage electricity costs, making full use of available PV generation is becoming more important. The MGTL Series uses Sungrow’s PID Zero® technology, an ESS PID solution designed to protect PV modules and support long term system performance. With PV input current of up to 20A per string, compatibility with high current PV modules and a wide MPPT voltage range, the inverter supports up to 250% PV oversizing. Installers can therefore pair it with larger PV arrays, increasing potential energy yield and making better use of limited rooftop space.
“As solar adoption continues to grow across Sub Saharan Africa, making the most of every available unit of solar generation is becoming increasingly important. The MGTL Series gives installers greater flexibility to design systems that can maximise PV generation and help customers get more value from their solar investment,” says Nigel Sun, President of Sungrow Sub Saharan Africa.
Sungrow MGTL Series (10/12/15/20/25kW) –
Scale Up, Power On. Image credit: Sungrow
Backup capability remains a key consideration for African homes and businesses buying an energy system. The MGTL Series switches between grid tied and off grid modes in zero milliseconds, so connected loads keep operating during a grid outage. It supports up to 200% three phase unbalanced output, a maximum charge and discharge current of 440A, and AC overload capacity of up to 2.0 times for 10 seconds. This allows the system to handle demanding residential and commercial loads while giving designers more flexibility in building hybrid solar and storage systems.
Sungrow has also designed the series to streamline installation and improve the user experience. Fanless operation keeps noise levels as low as 35 dB(A) on the MG10/12/15TL models, and selected models have a 4.3 inch touchscreen for local monitoring and adjustment. An integrated multi function port allows flexible connections with diesel generators and smart loads, while the bus bar terminal battery design supports quick, straightforward battery deployment. These features are particularly relevant for installers managing increasingly sophisticated solar and storage systems across residential and commercial applications.
“As hybrid solar and storage systems become more sophisticated, installers need solutions that are powerful without adding unnecessary complexity. The MGTL Series combines key functions into a highly integrated platform, helping to simplify installation while giving customers greater flexibility in how they manage their energy,” says Sun.
Safety and durability are central to the design. The series comes with standard AFCI 3.0R arc fault detection, covering cable runs of up to 200 metres with a 20A detection current, which helps keep rooftops safe over long distances and gives early warning of electrical fire risks. It also has a patented explosion proof design with dual pressure relief, an IP66 protection rating and C5 corrosion resistance for dependable operation in challenging environments.
The inverters connect with Sungrow’s MBL120 and MBL160 battery series as well as a growing range of third party battery solutions. Through the iSolarCloud platform, users and installers get real time system data and customisable energy management insights within a secure and open ecosystem.
With the MGTL Series, Sungrow says it is continuing to push residential energy innovation forward, delivering smarter, safer and more resilient systems for evolving needs.
For enquiries in Sub-Saharan Africa, contact Sungrow HERE 
Author: Bryan Groenendaal






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Published – November 13, 2026 07:30 am IST – BENGALURU
A perovskite solar cell. | Photo Credit: Public domain
Perovskite solar cells are an exciting technology in the solar industry because they extract more power from a given area than silicon.
They get their name from the crystals they are made of, metal-halide perovskites. They absorb sunlight strongly, so require an active layer only a few hundred nanometres thick, which is three orders of magnitude thinner than silicon wafers.
Manufacturing perovskites also requires temperatures under 200°C while silicon cells are much less forgiving. So depending on other economic factors, the perovskites process may be less energy-intensive.
Published – November 13, 2026 07:30 am IST
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Friday, November 13, 2026 74° Today’s Paper
By Sebastien Selarque
Nov. 12, 2026
Sébastien Sélarque
STAR-ADVERTISER / 2024
Thousands of solar panels collect energy from the sun for grid use and battery storage at Kupono Solar Farm in Ewa Beach on June 13, 2024.
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From as low as $12.95 /mo.
In Hawaii, energy solutions should be community solutions that ensure resiliency and safety. As Hawaii weighs a proposal from Tokyo-based JERA Co. Inc. to build a liquefied natural gas (LNG) power plant and terminal on Oahu — a roughly $2 billion project — with questionable economic benefits, we have now endured yet another intense storm that makes us reflect.
Would LNG have kept the power on for the 250,900 residents who lost power as high winds and heavy rains impacted the island chain during Lala? Would LNG have kept the power on for the more than 130,000 residents without power in March during the Kona-low storms?
No. A new centralized fossil fuel burning power plant, like this proposed LNG project, would not have prevented downed power lines. However, solutions that don’t rely on those powerlines, like rooftop solar and battery storage, resiliency hubs and local microgrids can ensure that people have access to electricity when they most need it.
LNG is a fossil fuel that Hawaii would have to import from foreign countries. Investing billions in new LNG infrastructure risks locking Hawaii into decades of imported fuel dependence, global price swings, trade wars and global conflict, and continued greenhouse gas emissions. At a time when the state has committed to achieving 100% renewable energy by 2045, LNG is not a bridge to a clean future; it is a detour.
Utility-scale solar is now one of the lowest-cost sources of electricity that exists. When paired with battery storage, it can provide reliable, dispatchable power at rates that are increasingly competitive with fossil fuels. In Hawaii, several recently approved solar-plus-storage projects have already demonstrated lower costs than traditional oil-fired generation, while offering stable, predictable pricing over decades.
Distributed rooftop solar is already widespread on Oahu, with more than 1 in 3 single-family homes generating their own power. This existing network can be expanded efficiently, particularly when combined with battery systems that store excess energy for use during evening peak demand. The result is a more flexible and resilient grid.
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Battery storage costs, once a major barrier, have fallen by more than 80% over the past decade. Grid-scale storage projects are now being deployed across Hawaii to shift abundant daytime solar into the evening, reducing reliance on fossil fuel peaker plants. This is not theoretical — it is already happening.
In contrast, LNG projects require long development timelines, complex permitting processes, and decades of cost recovery. By the time such infrastructure becomes operational, renewable technologies are likely to be even more affordable and efficient.
Hawaii currently imports most of its energy, sending billions of dollars to outside economies. Expanding solar and other renewables keeps more of that money within the local economy, supporting jobs, businesses and long-term economic resilience.
Clinging to LNG risks delaying the inevitable while saddling residents with unnecessary costs and continued exposure to global fuel markets. Solar, by contrast, offers price certainty, energy independence and alignment with Hawaii’s legally mandated goal of 100% renewable energy by 2045.
We have a choice. We can double down on imported fossil fuels through LNG, or we can accelerate the transition already underway — one built on solar, storage and local resilience. Hawaii has long positioned itself as a leader in clean energy, with both the resources and the policy framework to succeed.
Solar is not just an option — it is the smarter investment for Hawaii’s future.
Sébastien Sélarque is corrdinator of Local Power Hawaii, a new coalition of community leaders, business owners and organizations advocating that Hawaii — not outside corporations or fossil fuel interests — control the state’s energy future.
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Tiverton planners conditionally approved a small solar array on a Nanaquaket Road farm. They continued the Stonegate Estates subdivision to Dec. 1 amid a dispute over a strip of land off Mary Lane that a neighbor says she owns.
A three-lot subdivision off Mary Lane, with a home and an accessory unit on each lot, will return to the Planning Board on Dec. 1. Its access depends on a 40-foot strip that a neighbor says is hers, and a lawsuit over the strip is pending. A farm on Nanaquaket Road won conditional approval for a small solar array, with the fence requirement waived. The board also gave a positive review to a new house in the Stafford Pond watershed.
Tiverton, R.I. — The Tiverton Planning Board on Tuesday night granted conditional approval for a small ground-mounted solar array on a farm on Nanaquaket Road. It also pushed a contested three-lot subdivision off Mary Lane to its Dec. 1 meeting, according to the Tiverton Planning Board's published meeting recording.
The subdivision, Stonegate Estates, stalled over a single question: whether a 40-foot strip at the end of the Mary Lane cul-de-sac gives the new lots legal access to a public road. A neighbor says the strip is part of her property, and a lawsuit over it is pending, according to a statement read on her behalf.
The board opened by amending its agenda and voting to continue three items to Dec. 1. They were two development applications and the Stafford Farms application.
The board also voted to extend the "time clock" on one of those items to Dec. 31. A time clock is the deadline under state law for the board to act on an application. Members said the other two items already had clocks running to Dec. 30 and Dec. 31, so no change was needed.
The Stonegate Estates application covers about 11 acres on Bulgarmarsh Road, according to land-use expert Peter Friedrichs, who testified for the applicant. A single-family home on the property has been demolished. The plan calls for three lots, each with a single-family home and a detached accessory dwelling unit, a smaller second home on the same lot.
Engineer Jeffrey Hanson said access would come from a roughly 230-foot extension off Mary Lane ending in a new cul-de-sac. He said the cul-de-sac design was reviewed with the fire chief for the turning radius of the largest fire vehicle. Each lot would have its own septic system and public water. A stormwater facility would discharge to a large wetland in the southwest corner of the property, Hanson said.
Friedrichs walked through the five findings state law requires before a subdivision is approved. They are consistency with the comprehensive plan, zoning compliance, environmental impacts, buildable lots and street access. He said the project meets all five at the preliminary plan stage. He also said the applicant was asking for a waiver of the environmental review statement.
Attorney Dylan Conley, representing the applicant, told the board that the legal status of the access strip is not this board's question. He said the law asks only whether there is physical access. Conley said the 1980s-era Mary Lane subdivision plat marks the strip as an "area reserved for future road." He said the Town Council later accepted that plat. He cited a recent Superior Court decision in a Westerly case involving Habitat for Humanity and argued the strip functions as a paper street. A paper street can be abandoned only through a formal process, he argued, and no such step has ever been taken.
Several speakers on the board's side disagreed. One said state law defines access as "adequate and permanent." That speaker said access over land the applicant has not shown it owns or holds recorded rights to cannot be shown to be permanent.
Another speaker, offering what they called a legal opinion to the board, said the board lacks jurisdiction to decide that the strip is legal access. That speaker said there is no recorded easement and no title to the strip in the applicant's name. The speaker said the applicant could buy the strip, obtain an easement or seek a court ruling.
One board member said the tax assessor's map showed the land under the strip as part of the neighboring lot on Mary Lane. Rosemary Eva, a board member, said she sat on the board when the original Mary Lane subdivision came before it. She said she remembered a stormwater easement on the property and "There was no 40 foot on that."
During public comment, a speaker read a statement on behalf of the owner of the neighboring Mary Lane lot, who was present and said she agreed with it. The statement said the developer approached the owner in December 2022 and offered compensation for use of the land. The offers rose from $3,000 to a proposed total of $35,000, and then to $40,000 to buy the strip outright, the statement said. The owner declined each offer, according to the statement.
The statement said the owner was served with a civil suit over the land in January 2024 and that the case remains pending. It also said workers hired by the developer entered the property with machinery and removed trees, and that the owner filed a report with the Tiverton Police Department.
The owner told the board she pays taxes on the land, bought her property in November 2021 and wants to see a deed showing the strip was given to the town.
One member said they did not oppose the subdivision and did not want to turn it down. That member suggested holding off on action rather than deciding. The board's time clock on the application runs to Dec. 7, members said.
The board was also weighing a memo from its consulting engineer, Weston & Sampson, that one member said raises engineering issues still to be resolved. A speaker for the applicant offered to accept a condition requiring every Weston & Sampson concern to be addressed by final plan. The applicant's side said it wanted a full chance to rebut those concerns if any were used as grounds for denial.
Board members raised moving the matter to a Dec. 15 special meeting. That would require the applicant to extend the time clock, and the applicant's side said it had no authority to do so.
The board then voted by voice to continue the hearing to Dec. 1 to discuss the engineering and make a final decision. A speaker suggested the applicant's engineers meet with Weston & Sampson beforehand to narrow the issues.
The Nanaquaket Road property owner is proposing a 936-square-foot ground-mounted solar array on a 29-acre farm to power farm operations and the house. Ground-mounted arrays are mostly prohibited in town but allowed on properties in the state farm program, a speaker reviewing the application explained. The array would cover about 0.7% of the lot, sit roughly 500 feet from the road and stand just over 10 feet tall, the speaker said.
Board member Stuart Hardy said he supports the project. He listed requirements unique to farm solar arrays. Generation is capped at 125% of the farm's electricity needs, and Hardy said he had read this one would produce about 101%. The other requirements are a USDA-approved farm conservation plan, proof of farm tax status, a recorded operating and maintenance plan, and decommissioning information. The owner said she has a conservation plan, though members noted it was not in their packets.
Town Planner Christopher Spencer said the rules call for a 10-foot chain-link fence but that the board can waive it. He said he would rather not see one. The owner said she plans a low fence to keep her horses away from the array.
Tim Rich of Newport Solar testified that the wiring would run through buried conduit and that the equipment would be sealed. He said installation might not happen before the end of the year but could come within a month of approval.
On a motion by Eva, the board approved the preliminary plan by voice vote. The approval is conditioned on submission of the missing documents, a waiver of the fence requirement and proper titling of all plans. A speaker said the final plan will be handled administratively, so the owner does not need to return to the board.
The board voted 4-0 to accept an environmental review statement for a new house on a roughly five-acre Bulgarmarsh Road property in the Stafford Pond watershed. The vote amounts to a positive recommendation to the building official.
An engineer from Civil Engineering Concepts said the owners want to keep the existing house as an accessory unit, which still requires a zoning variance. He said impervious building coverage would rise from 2.3% to 4%. Roof runoff would go to an infiltration trench, he said, and former paddock areas would be seeded.
One board member called Stafford Pond the town's only drinking-water source apart from Fall River. That member said increases like this one, repeated around the pond, would add pollution, and urged the use of the state's low impact development manual. The member also pressed the applicant to seek a letter of applicability under the town's soil erosion ordinance. The engineer agreed to contact the building official about it ahead of time.
Spencer said the proposal "complies completely" with watershed rules, which cap impervious cover at 10%. Two residents asked about contamination testing in the area. One suggested new construction anywhere in town be tested for possible contamination spread.
The comprehensive plan is the town's long-range guide for land use. A speaker said a draft request for proposals to hire a consultant for the plan update is expected to go to the Town Council when the new council is sworn in in December.
One member, who said they were active in the 2018 plan, said the town is supposed to have a new plan by 2028. That member said they were "very disappointed" the work has not been a higher priority. Susan Anderson, speaking during public comment, read the 2018 plan's history: work began in late 2013, and the council adopted the plan on April 30, 2018. A member asked that the item stay on future agendas, and the chair agreed.
The board meets next on Dec. 1, when Stonegate Estates, Stafford Farms and the other continued items are expected to return. Members referred to a special meeting already planned for Dec. 15 for the Friendship Farms application.
This story was sourced from the complete transcript of the meeting and carefully summarized with an LLM. While we make every effort to ensure accuracy, the possibility of transcription errors could lead to inaccuracies. How we report meeting stories →
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This bill prohibits including accessory dwelling units in comprehensive permit housing applications specifically within the town of Tiverton.
This bill prohibits including accessory dwelling units (ADUs) in comprehensive affordable housing permits specifically in the town of Tiverton.
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Tiverton is supposed to have a new comprehensive plan by 2028, but a consultant search discussed more than a year ago has not started. The last plan took about four and a half years, members and a resident said.

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EcoFlow has launched its STREAM Plug-in Solar Kit in the UK, offering households a way to generate their own electricity without committing to a traditional rooftop solar installation.
Starting at £599, the system combines solar panels with a compact microinverter that feeds electricity into the home through a compatible UK socket. EcoFlow claims it can generate up to 900kWh of electricity a year, potentially knocking £187 off annual energy bills.
The timing is significant. New UK regulations introduced on 27 August 2026 have opened the door to plug-in solar systems, giving renters, flat owners and households without suitable rooftops another way to make use of solar power.
Unlike conventional solar installations, which typically involve roof-mounted panels and dedicated electrical work, EcoFlow’s kit is designed for smaller spaces. The panels can be positioned in a garden, on a suitable balcony or even on an exterior wall, provided the location and installation meet the relevant requirements.
That flexibility could be particularly useful for renters who don’t want to invest in a permanent setup, although permission from a landlord or property owner may still be needed. It’s not quite a case of putting a panel anywhere there’s sunlight and plugging it in, either. EcoFlow says the system must be connected to a suitable socket and electrical circuit, following the applicable UK safety requirements.
Once installed, the kit converts sunlight into electricity that can help run everyday appliances, including fridges, televisions and Wi-Fi routers. The microinverter can start operating with just 3W of solar input, allowing it to make use of lower light levels during cloudy weather or at either end of the day. That’s a useful consideration in the UK, where relying on uninterrupted sunshine would be optimistic.
The hardware is built for outdoor use, with an IP67 dust and water resistance rating and an operating temperature range of -40°C to 65°C. EcoFlow also includes a 10-year warranty on the microinverter and 15 years on its 500W solar panel, while the companion app lets users monitor how much electricity they’re generating.
The system is listed on the Energy Networks Association’s Type Test Register under reference ECOFL/21606/V1/A1, although households still need to ensure their particular installation meets the relevant electrical requirements.
As for the promised savings, EcoFlow’s £187 figure comes from its own modelling rather than a guaranteed reduction. Actual results will depend on factors such as panel placement, sunlight, electricity tariffs and how much of the generated power a household uses.
The EcoFlow STREAM Plug-in Solar Kit is available now in the UK, with prices starting at £599 through the official EcoFlow website. At the company’s maximum estimated saving, recovering that initial cost would take a little over three years, although households generating less electricity could take considerably longer.
Diane is a News Writer for Trusted Reviews, covering daily goings on in the tech world. She holds a degree in creative writing and mainly crafts fictions with a passion for novel storytelling. Her work delves into different genres, now with writing reviews for gadgets and home appliances. Outside of work, Diane enjoys immersing herself in active lifestyle such as dancing and running.
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Japan Forward
Sekisui Chemical's film-type perovskite solar cell (Courtesy of the company)
Competition between Japan and China to develop and mass-produce next-generation perovskite solar cells is intensifying. According to private research firm Fuji Keizai, the global market is expected to reach ¥3.69 trillion (approximately $23 billion) by 2040.
Perovskite solar cells are a next-generation technology that generates electricity using a thin layer of coated perovskite, a crystalline material capable of converting sunlight into electricity.
The technology was developed in Japan by Professor Tsutomu Miyasaka, who is considered a Nobel Prize contender.
China is taking the lead in mass production through government support and massive investment, while Japanese companies are struggling to compete on price.
Japan, however, is seeking to differentiate itself through distinctive technologies, including lightweight, flexible film-type cells, and solar panels integrated into buildings.
Japan’s film-type cells are attracting particular attention because they can be installed on surfaces unsuitable for conventional solar panels. However, reducing manufacturing costs remains a challenge, partly because moisture-protection materials are expensive. The country produces approximately 30% of the world’s iodine, a key raw material used in the technology.
Perovskite solar cells are also among the 17 strategic sectors being promoted by Prime Minister Sanae Takaichi’s government, which aims to achieve 20 gigawatts of installed capacity by 2040.
Meanwhile, Chinese companies such as GCL Group announced in 2025 that they had begun operating production facilities with capacities of up to 1 gigawatt.
However, announced production capacity does not necessarily translate into actual output. Yohei Kawai of Fuji Keizai, who monitors Chinese manufacturers, says some factories operate at annual utilization rates of just a few percent, with even the highest remaining below 20%. He notes that these facilities cannot yet be considered fully operational mass-production plants and that product quality varies.
Chinese manufacturers are focusing on tandem cells, which combine different solar technologies to improve efficiency. By allowing each layer to absorb different wavelengths of sunlight, these cells can generate more electricity. However, their greater weight compared with conventional silicon panels limits their potential installation sites.
Kawai says some Chinese companies claim they can manufacture these cells at just two to three times the cost of conventional silicon models. They aim to bring prices down by leveraging the mass-production capabilities and procurement expertise developed through their silicon solar businesses.
He is skeptical that Japan can compete directly on price, saying, “If Japan tries to compete head-on, it probably won’t win.”
Japanese manufacturers are instead targeting applications where flexibility and lightweight design offer a competitive advantage.
Sekisui Chemical launched its film-type solar cell, SOLAFIL, this year. Its lightweight design makes it suitable for factory rooftops with weight restrictions, as well as curved surfaces.
The company plans to establish a mass-production line in Sakai, Osaka Prefecture, with an annual capacity of 100,000 kilowatts in fiscal 2027. It aims to generate more than ¥25 billion in sales and achieve operating profitability in fiscal 2028.
Panasonic Holdings also launched its first mass-produced power-generating glass building materials in September. The company has brought forward the start of full-scale mass production at its facility in Nagahama, Shiga Prefecture, by one year to April 2029. It hopes to incorporate the technology into windows, railings and other architectural features.
“We aim to make these products blend seamlessly into urban designs and enhance the value of buildings and streetscapes,” said Chief Technology Officer Tatsuo Ogawa.
Some experts believe Japanese manufacturers have an advantage in product quality. Ryo Tanaka, representative director of the Japan Perovskite Solar Cell Promotion Council, says early-generation Japanese models are considerably more reliable than their Chinese counterparts.
He also highlights the benefits of installing perovskite solar cells in areas where electricity is consumed, allowing power to be generated close to where it is needed and helping reduce pressure on transmission networks.
Perovskite solar cells are already being tested at locations where conventional panels have been difficult to install, including road noise barriers, railway facilities, public spaces and building rooftops.
West Nippon Expressway Company plans to begin installing film-type cells in mid-November on the roof of a parking area reserved for people with disabilities at the Katsuragawa Parking Area on the Meishin Expressway in Kyoto Prefecture.
A demonstration project is also underway on noise barriers along the Chita Peninsula Road in Aichi Prefecture. The electricity generated will be used for various applications, including systems designed to prevent vehicles from traveling in the wrong direction.
Other projects are exploring potential applications at railway stations and public facilities. At last year’s Osaka-Kansai Expo, Sekisui Chemical installed film-type cells on a bus stop roof, using the electricity generated to power nighttime lighting. 
JR West is also testing the technology in a plaza near Osaka Station to assess its potential for use at railway facilities.
Perovskite technology can also be integrated into buildings without compromising their appearance. In September, the Kamomeria sightseeing boat terminal in Kobe installed glass-type solar cells manufactured by Panasonic. The electricity generated is used to power lighting and air conditioning.
These projects demonstrate the technology’s potential to open up new locations for solar power generation. However, widespread adoption will depend on proving its durability under outdoor conditions and demonstrating that its benefits justify the installation costs.
(Read the article in Japanese.)
Author: Hiroto Kuwajima, The Sankei Shimbun
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Four additional solar sites in Florida could eventually save customers millions over 30 years.
Duke Energy Florida announced plans to build four new solar energy sites, with the sites expected to be up and running by mid-2028.
Together, these sites will add 300 megawatts of clean energy to the electric grid. Florida is the third-fastest-growing state in the U.S., and electricity demand is climbing with the population. Duke Energy Florida already operates 25 solar sites that contribute 1,850 megawatts to the grid, with each site capable of powering about 15,000 homes.
The biggest draw for the state is the long-term cost savings. Because solar panels run on sunlight instead of natural gas or oil, each new site can save customers $250 million in displaced fuel costs over its roughly 30-year lifespan. Across all four projects, that adds up to an estimated $1 billion in customer savings, Duke Energy Florida stated.
Additionally, the Inflation Reduction Act helps keep costs down, too. Duke Energy Florida currently transfers about $75 million in production tax credits to customers every year, which lowers monthly bills by $2.50 for every 1,000 kilowatt-hours of electricity used. The company explained that those savings will grow as more sites come online.
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Each site also cuts fossil fuel usage every year, saving about 1.1 million cubic feet of natural gas, 12,000 barrels of fuel oil, and 9,000 tons of coal.
“At Duke Energy Florida, our job is to make smart, disciplined investments today that will benefit our customers tomorrow,” said Melissa Seixas, Duke Energy Florida state president. “These solar energy sites are just one example of how we’re planning for the future and strengthening our system to continue providing safe, reliable power, at the lowest possible price, for years to come.”
An obvious problem with solar power is clearly the sun eventually sets. Duke Energy Florida addressed this by pairing its solar sites with utility-scale batteries that store extra power when demand is low and release it when people need it most.
Over the next 10 years, the company plans to build over 1 gigawatt of battery storage, which brings even more tax credit savings to customers. They are also speeding up tax credits from their seventh battery site, the Powerline Battery Energy Storage System in Citrus County, to avoid a scheduled base rate hike and help lower bills in 2027.
Construction on the four new sites in Orange and Sumter counties will roll out in phases throughout 2027.
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On 10 November, the company and German equipment maker Singulus Technologies announced a supply contract under which Singulus will deliver a complete turnkey production line for heterojunction (HJT) solar cells. The line is meant for SpaceX’s Starmind satellites and established at its Bastrop, Texas facility. The first line is due in the first half of 2027, and the partnership covers further lines.
What was actually disclosed
The contract value was not disclosed. Singulus said it entered a strategic partnership with SpaceX in March 2026, and that SpaceX provided significant funding that month and again in October through a secured loan, again without mentioning the amounts involved. SpaceX framed the aim as creating a “durable option for advanced solar cell manufacturing” to support more than 100 GW of equipment.  Tesla had announced plans to build a 100 GW cell making plant in the US earlier this year, titled Project Crystal Sun. 
Starmind is SpaceX’s AI satellite programme. The satellites are designed to capture solar energy in orbit and run computing there, with results sent to Earth through Starlink. Production and deployment of thousands of satellites is planned to begin as soon as late 2027.A captive cell line puts a key input under SpaceX’s own roof.
Why heterojunction
SpaceX has not published its reasoning, but trade reports offer one. PVTime, a Chinese industry outlet, argues that HJT supports ultra-thin wafers of 50-70 microns, which cut weight and resist radiation, at a fraction of the cost of conventional space cells. Earlier, there were reports that SpaceX had started a shift away from gallium arsenide cells towards scalable silicon and perovskite. 
The news comes in the same week that produced a second signal on technology direction. US module maker Heliene and perovskite firm Caelux said their hybrid tandem module, combining perovskite glass with n-type silicon cells, is in commercial-scale production in Minnesota at efficiencies of 27 percent or more, with first deliveries slated for 2027.
What it means for the solar industry
There are two perspectives here. First, vertical integration is spreading beyond solar companies. SpaceX follows Tesla, whose reported $10.1 billion Project Crystal Sun cell plant filing we covered in August. Large technology buyers are deciding that cell supply is too important to outsource.
Second, Singulus is selling supply-chain security. It describes itself as aiming to be a leading Western provider of next-generation cell technology. That matters because equipment for HJT lines has been heavily Chinese,like most solar manufacturing equipment today. A buyer willing to fund a Western vendor creates demand for non-Chinese equipment, which Indian manufacturers building out cells may eventually find useful.
The Indian connect
India’s cell build-out is large and recent. The last revision of the cell ALMM list took listed capacity to 45 GW. TOPCon is the dominant choice in the new Indian capacity we track.
None of this means TOPCon is a mistake. Space is a tiny market next to terrestrial solar, and satellites value weight and radiation tolerance, not rupees per watt. SpaceX’s choice is not evidence about ground-mounted economics. But the manufacturing risk we raised in our July cover story, technology obsolescence, is easier to see when the best-capitalised new buyer in the cell market skips the incumbent technology and when a 27 percent tandem module reaches production.
The practical lesson is optionality. Indian cell makers locking in multi-gigawatt TOPCon lines should ask vendors about upgrade paths as well. Equipment contracts signed now will still be depreciating when 2027 module technology arrives. 
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India’s renewable energy sector is entering a significant growth phase, creating fresh opportunities for businesses, investors and manufacturers. With electricity demand increasing and the focus on energy security becoming stronger, the country is expanding its clean energy capacity through solar, wind, hydropower, bio-energy and emerging technologies such as green hydrogen.
This transition is not just about generating electricity from cleaner sources. It is also opening up new avenues for industrial investment, domestic manufacturing, infrastructure development and employment. From solar panel production to battery storage and hydrogen technology, India’s changing energy landscape is creating opportunities across multiple industries.
The country’s total installed power capacity reached approximately 560 GW in October 2026, compared with 249 GW in 2014. Non-fossil fuel sources accounted for 308 GW as of July 2026, representing around 55% of total installed capacity. India now ranks third globally in renewable energy installed capacity.
Growing investment is supporting India’s ambition to develop a stronger and more self-reliant clean energy industry. The renewable energy sector attracted approximately $63.7 billion between July 2024 and June 2026, reflecting increasing interest in clean power infrastructure and technology.
The Bharat Renewable Energy Summit and Expo (BRESE) 2026, held in New Delhi from November 2 to 5, further highlighted the sector’s investment potential. The event brought together international policymakers, investors, manufacturers, technology providers and industry representatives.
More than 400 manufacturers, startups and research institutions participated in the exhibition, while 13 Indian states and Union Territories showcased their renewable energy capabilities and investment opportunities.
Discussions focused on clean energy financing, domestic manufacturing, energy storage, emerging technologies and workforce development. These areas will play an important role in strengthening India’s renewable energy supply chain and attracting private investment.
Solar power has become the largest component of India’s renewable energy capacity. Installed solar capacity reached approximately 175 GW by October 31, 2026, rising significantly from 2.8 GW in 2014.
India added more than 37 GW of solar capacity in 2025, becoming the world’s second-largest solar growth market during the year.
Government initiatives are also encouraging households and businesses to adopt rooftop solar systems. The PM-Surya Ghar: Muft Bijli Yojana, launched with an outlay of ₹75,021 crore, aims to benefit one crore households.
By November 2, 2026, around 65.26 lakh households had benefited from rooftop solar installations, while nearly 21 lakh households had received zero electricity bills by October.
For businesses, this expansion creates opportunities in solar equipment manufacturing, installation, maintenance and project development.
The Pradhan Mantri Surya Sarovar Yojana, approved with an allocation of ₹5,070 crore, is also expected to support 5,000 MW of floating solar projects with integrated energy storage. This can encourage investment in specialised solar technology and infrastructure.
Wind energy is another important contributor to India’s clean power expansion. The country had approximately 59.20 GW of installed wind capacity as of October 29, 2026, ranking fourth globally.
Annual additions reached a record 6.05 GW in FY 2025–26. Domestic manufacturing is also expanding, with wind turbine manufacturing capacity reaching approximately 24 GW in March 2026.
The growth of the sector is benefiting equipment manufacturers, engineering companies and infrastructure developers. Offshore wind projects are also creating opportunities for specialised technology and investment.
Bio-energy is developing alongside these sources. India’s bio-power capacity reached approximately 11.75 GW in October 2026, while the compressed biogas sector is attracting attention from businesses involved in agricultural waste management and clean fuel production.
The GOBARdhan National Circular Bioenergy Scheme, with an allocation of ₹23,731 crore, aims to expand domestic compressed biogas production. It offers opportunities for agricultural enterprises, waste management companies and technology providers while supporting a more circular use of natural resources.
Green hydrogen is emerging as a promising opportunity for India’s industrial and energy sectors. Under the National Green Hydrogen Mission, the government aims to develop annual production capacity of five million metric tonnes by 2030.
The mission has an approved outlay of ₹19,744 crore and is expected to encourage investment in production facilities, electrolysers, storage infrastructure and transportation systems.
Indian companies have already signed green hydrogen offtake commitments of 5.5 lakh metric tonnes per annum since 2023. Projects are expected to attract investments of approximately ₹90,000 crore.
The development of hydrogen-powered vehicles and India’s first indigenous hydrogen fuel cell-powered train also reflects the expanding scope of this technology.
At the same time, energy storage is becoming increasingly important as solar and wind generation expand. Battery manufacturing, storage systems and grid management technologies will be essential for ensuring a more reliable electricity supply.
Hydropower continues to provide reliable and flexible electricity, supporting grid stability as renewable capacity increases. India’s cumulative hydropower capacity reached 57.49 GW in October 2026.
The Small Hydro Power Development Scheme, approved with an allocation of ₹2,584.60 crore, aims to add approximately 1,500 MW of capacity by FY 2030–31, with particular support for hilly and northeastern regions.
Geothermal energy is also receiving greater attention. India’s estimated geothermal potential stands at around 10,600 MW, based on exploration across 381 hot springs.
The National Policy on Geothermal Energy provides a framework for research, technology partnerships and project development. Although the sector remains at an early stage, it could create opportunities in specialised engineering, research and clean energy infrastructure.
India’s clean energy expansion is creating opportunities throughout the business ecosystem. Large companies can invest in renewable energy generation and infrastructure, while MSMEs can participate in equipment manufacturing, component supply, installation, maintenance and technical services.
The growing demand for skilled workers is also expected to support employment in engineering, project management, research and energy operations.
However, sustaining this growth will require affordable financing, reliable transmission infrastructure, advanced storage technology and a stronger domestic manufacturing base. Businesses will also need to focus on technological innovation and operational efficiency to remain competitive.
India’s renewable energy transition is evolving into a major opportunity for economic growth and industrial development. Expanding solar and wind capacity, growing interest in bio-energy, and investments in green hydrogen and energy storage are creating new markets for businesses and investors.
The next phase will depend on how effectively India combines policy support, private investment, domestic manufacturing and technological innovation. As the country strengthens its clean energy infrastructure, renewable power will play an increasingly important role in building a competitive, energy-secure and sustainable economy.
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FlexGen chosen as system integrator for Google-backed US solar-plus-storage project with MN8, Eos  Energy-Storage.News
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Europe continues to stack the building blocks for a more robust space economy. 
Gama, a French startup developing ultra-light deployable solar arrays, announced a €15M seed round yesterday to boost Europe’s solar array supply chain.
The round included funds from a mix of European and US VCs, including Transition Ventures, Planet A, Draper Associates, and Manta Ray.
The tech: Gama was initially founded to develop solar-sail technology—which uses the Sun’s energy to propel spacecraft into deep space—but the company quickly transitioned into developing solar arrays to solve the ever-present supply-chain headache for other satellite operators.
Nearly every spacecraft in orbit relies on solar panels to power its payloads, but solar cells are built by a small number of providers and can often come with lead times as high as a year or more, according to CEO Andrew Nutter.
Additionally, as power needs increase, the size of the solar arrays required to run each satellite grows larger, causing them to become floppy—and less effective at gathering sunlight. While traditional solutions involve adding weight to increase rigidity, Gama’s solution uses software—uploaded into customer flight computers—to help point the solar arrays at the Sun, and to solve the floppy-disk problem without additional mass.
“Our approach is to make [solar arrays] as thin and light as possible, so you can have more surface area, and you reduce the cost and the mass. Then, as you get to bigger surface areas, transfer some of that complexity—and the requirements for stability—into the software side,” Nutter said.
Gama is targeting $10 per watt on its solar arrays, and will deliver its first demonstration Wing in the middle of next year.
Shining light: Gama’s fundraise represents one of the largest seed rounds for a European space startup in recent years. It’s a signal that European VCs are growing increasingly comfortable making big bets on the future of the region’s space ecosystem. But it’s also reflective of the demand Gama has seen—and expects to continue seeing—as Europe scales its footprint in orbit.
In September, Gama signed a partnership with US satellite builder Eclipse Space to supply deployable solar arrays for Eclipse’s satellite platforms. For future customers, Gama has its eye on the growing pool of satellite-bus manufacturers across the continent.  
“We needed funding because there was demand or volume, and so we needed the factory quite quickly,” Nutter said. “The vision is very simple: If we can consolidate the volume from multiple satellite-bus manufacturers, we can give the industry cheaper prices.”
The Autobahn is coming for in-space data traffic.
OwlO Cloud is planning to have at least 10 spacecraft—orbital cloud nodes (OCN)—operational by 2030.
Lyra Systems announced an agreement with the DoD aimed at helping early-stage technologies traverse unscathed across the Valley of Death.
PAVE Space announced plans to launch a demo mission of its IBEX spacecraft—a highly maneuverable platform for commercial and defense payloads. But PAVE isn’t the only startup building a security detail.
Spaceium’s goal is to launch gas stations into orbit. The first step? Making sure spacecraft builders have access to the pump.
Today, the company is opening up access to its OpenPort refueling tech, allowing any company to build and license the hardware for $1—a low price because Spaceium plans to make its money by selling fuel to spacecraft.
“We are not a port business,” Spaceium cofounder and CEO Ashi Dissanayake told Payload. “We are not here to sell a refueling interface and make money. We want to develop this whole space economy so that any spacecraft can get filled.”
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Computer Vision Framework Accurately Maps Urban Rooftop Solar Potential in Pakistan
A research team has demonstrated an automated computer vision pipeline combining the YOLOv8 object detection model and Meta AI’s Segment Anything Model to identify urban rooftops and calculate photovoltaic potential from high-resolution satellite imagery. Published in Energy Reports, the investigation focuses on bridging the gap between coarse bounding-box detectors and computationally heavy segmentation networks when surveying dense built environments. By deploying high-resolution GeoEye-1 satellite images across Karachi and Lahore, Pakistan, the sequential pipeline isolates structural footprints and traces rooftop boundaries without task-specific fine-tuning for segmentation. The integrated architecture recorded a mean average precision of 94.1 percent at a 0.5 intersection-over-union threshold for detection, alongside an 89.3 percent intersection-over-union score for instance segmentation. These benchmarks show that coupling single-stage neural detectors with vision foundation models offers an accurate, scalable mechanism for evaluating rooftop solar capacity across South Asian urban landscapes where dense informal settlements and heterogeneous construction materials complicate remote sensing surveys.
The research addresses renewable energy planning requirements in Pakistan, where rapid urbanisation, escalating electricity costs, and acute manifestations of climate change have made transitioning to decentralized clean energy a national priority. Citing baseline resource evaluations by Hussain and colleagues, the authors note that urban Pakistan holds an estimated technical rooftop solar potential between 1.5 and 2.0 terawatts, corresponding to 1500 to 2000 gigawatts of installed capacity. This projection assumes a total urban rooftop surface area of approximately 3500 to 4500 square kilometres, of which roughly 60 to 70 percent is deemed technically feasible after accounting for structural considerations, obstructions, and shading losses. Taking an average annual global horizontal irradiance of 5.3 kilowatt-hours per square metre per day across major Pakistani cities, assuming standard monocrystalline panel efficiency of 18 percent, and applying a system performance ratio of 0.75 for system losses, the annual energy yield reaches approximately 260 to 290 kilowatt-hours per square metre when aggregated over available rooftop surfaces.
Accurately determining available rooftop area remains the most uncertain input parameter when modeling urban photovoltaic potential, as conventional site assessments rely on manual physical surveys that are time-consuming, expensive, and vulnerable to human error. While automated aerial and satellite image processing has progressed, existing machine learning workflows present distinct operational trade-offs. Standard object detection models, including earlier YOLO variants such as YOLOv5, rapidly predict rectangular bounding boxes; however, bounding boxes encompass surrounding streets, vegetation, and adjacent infrastructure, substantially overestimating usable surface area. Conversely, dedicated segmentation networks like U-Net and Mask R-CNN generate precise pixel-level boundaries but impose significant computational burdens. Mask R-CNN requires a complex two-stage region proposal network, whereas U-Net demands dense pixel-level manual annotations that cannot easily scale to city-wide satellite analysis. Furthermore, earlier segmentation benchmarks were developed primarily on Western datasets with pitched roofs, showing marked performance drops on the flat-roofed, high-density urban fabric typical of South Asian cities.
To overcome these limitations, the researchers compiled high-resolution satellite imagery from two regional collections: the Karachi Rooftop Solar Potential Dataset and the Lahore Satellite Imagery Dataset. Captured by the GeoEye-1 satellite operating at an orbital altitude of 681 kilometres with a 1950-millimetre focal length sensor, the imagery provides a ground sample distance of roughly 0.3 to 0.5 metres per pixel in panchromatic mode. This spatial fidelity permits fine-grained visual discrimination of structural roof edges and diverse architectural typologies, including flat, sloped, residential, commercial, and industrial structures. Ground truth annotations were established through manually drawn rectangular bounding boxes for detection and polygon masks for instance segmentation. The combined image corpus was partitioned into training, validation, and testing sets using a 70:15:15 ratio. To improve model generalization and mitigate overfitting, training data were expanded using data augmentation techniques including random rotations, horizontal flipping, brightness adjustments, scaling, and random cropping.
For the detection stage, the authors selected YOLOv8x, citing its architectural advantages over prior detector generations. Operating with an anchor-free detection head, YOLOv8 eliminates manually tuned anchor boxes, boosting convergence speeds and detection accuracy for irregularly shaped buildings. The backbone incorporates Cross-Stage Partial with two convolutions modules to enhance gradient flow and feature reuse, alongside a Spatial Pyramid Pooling Fast layer that pools features into fixed dimensions. A decoupled head separates classification from bounding box regression, utilizing Complete Intersection over Union and Distribution Focal Loss functions alongside binary cross-entropy. The YOLOv8 network was trained over 300 epochs with an input dimension of 640 by 640 pixels, a batch size of 16, and the AdamW optimizer with an initial learning rate of 0.001 and cosine scheduling. Training was performed on an NVIDIA RTX 4090 GPU with 24 gigabytes of memory, using early stopping to retain model weights with optimal validation mean average precision.
The operational pipeline executes a structured seven-step sequence that routes candidate rooftops from satellite input to capacity modeling. In the initial steps, raw GeoEye-1 satellite images are resized to 640 by 640 pixels, normalized, and processed by the trained YOLOv8 model to generate localized bounding boxes with associated confidence scores. Detections falling below a confidence threshold of 0.5 are discarded to filter out false positives. In the fourth step, the remaining bounding box coordinates serve as discrete spatial prompts passed to the Segment Anything Model, which predicts a pixel-wise binary segmentation mask isolating the roof surface from surrounding context. Following mask generation, morphological post-processing removes small artifact masks occupying an area under 100 pixels, while overlapping masks from adjacent detections are unified through union operations. The resulting segmented masks delineate usable rooftop boundaries, stripping away extraneous imagery features such as adjacent streets, open ground, or tree canopies.
Once refined binary masks are produced, the pipeline computes actual physical rooftop areas by converting pixel counts using the satellite sensor’s ground sample distance. The mathematical formulation calculates planar rooftop area by multiplying the total pixel count by the square of the ground pixel resolution, applying a conversion factor of 10.7639 when converting square metres into square feet. Because nadir-view satellite imagery captures projected horizontal dimensions, this calculation accurately reflects the planar footprint of flat urban rooftops that dominate Pakistani metropolitan areas. From this usable area, the system estimates potential photovoltaic installation capacity by factoring in the physical dimensions of standard monocrystalline solar panels and reserving necessary clearance intervals required for maintenance and access. Concurrently, filtering logic accounts for major structural exclusions, allowing energy planners to derive aggregate power generation estimates using regional annual solar irradiance profiles and standard system derating factors.
Empirical evaluation on the isolated test dataset confirmed robust quantitative performance across both stages of the integrated framework. In the detection phase, YOLOv8 achieved a precision of 92.8 percent, a recall of 90.7 percent, and an overall F1-score of 91.7 percent. When evaluated across mean average precision metrics, the model reached 94.1 percent at mAP@0.5 and 81.5 percent across mAP@0.5:0.95 thresholds, demonstrating high localization accuracy across varying rooftop scales. The model also successfully identified 3697 out of 3700 ground-truth rooftop instances during testing, achieving a 99.5 percent instance detection rate within a 50 percent bounding box overlap. In the subsequent segmentation phase, the prompt-guided Segment Anything Model achieved an average Intersection over Union of 89.3 percent, a Dice coefficient of 93.7 percent, and an overall pixel accuracy of 95.1 percent. Qualitative evaluations by domain experts verified that the resulting masks reliably delineate physical roof boundaries while separating usable surface areas from surrounding non-rooftop elements.
The authors benchmarked the performance of the proposed YOLOv8-SAM architecture against established rooftop detection baselines, specifically evaluating U-Net, Mask R-CNN, and the DeepRoof framework on the same regional test imagery. The comparative analysis demonstrated clear empirical gains for the proposed approach across all standard evaluation criteria. The baseline U-Net architecture recorded a precision of 85.2 percent, a recall of 83.4 percent, and a mAP@0.5 score of 86.7 percent. Mask R-CNN achieved higher performance, yielding an 89.1 percent precision, an 87.9 percent recall, and a 90.3 percent mAP@0.5. DeepRoof delivered competitive detection metrics with 90.2 percent precision, 88.5 percent recall, and 91.4 percent mAP@0.5. The proposed YOLOv8-SAM framework outperformed all three baseline methods, registering 92.8 percent precision, 90.7 percent recall, and 94.1 percent mAP@0.5. The researchers attribute this superior performance to YOLOv8’s anchor-free detection head and feature reuse capabilities, combined with SAM’s prompt-driven visual segmentation.
Despite the high precision recorded across Karachi and Lahore, the authors outline several explicit methodological constraints that govern how these findings can be applied. The models were trained and tested exclusively on satellite imagery of urban Pakistani environments dominated by flat concrete roofs; consequently, the pipeline cannot be directly transferred to regions with pitched roofs or differing construction materials without dedicated domain adaptation. Furthermore, calculating surface area via planar nadir projections underrepresents the actual usable area on inclined surfaces where trigonometric cosine adjustments for roof slope would be required. The basic geometric filtering framework also does not currently model dynamic shadows caused by adjacent high-rise buildings, vegetation, or rooftop obstacles such as water tanks and HVAC units. To address these limitations, future research will explore integrating digital elevation models, LiDAR point clouds, and automated irradiance modeling tools such as PVGIS or NASA POWER to account for local microclimates and detailed shading effects.
Subject of Research: Automated rooftop solar potential mapping using computer vision and satellite imagery
Article Title: AI-enabled rooftop solar mapping and optimization: A computer vision approach for photovoltaic systems
Article References: Daniyal, S. M., Abro, A. A., Abbasi, M. M., Algarni, A. D., Ahmad, S., & Ateya, A. A. (2026). AI-enabled rooftop solar mapping and optimization: A computer vision approach for photovoltaic systems. Energy Reports, 16, Article 109893. https://doi.org/10.1016/j.egyr.2026.109893
Image Credits: AI Generated
DOI: 10.1016/j.egyr.2026.109893
Keywords: rooftop solar mapping, photovoltaic potential, YOLOv8, Segment Anything Model, computer vision, satellite imagery, GeoEye-1, urban solar energy, Karachi, Lahore, Pakistan, instance segmentation, object detection, solar irradiance, monocrystalline panels, deep learning, remote sensing, energy planning
News Source: Blake Davidson. (November 12, 2026). Computer Vision Framework Accurately Maps Urban Rooftop Solar Potential in Pakistan. Scienmag.
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Insight and inspiration in turbulent times.
resilience
By Katie Singer, originally published by Katie Singer on Substack
November 13, 2026
If a developer wants to install a utility-scale solar photovoltaic (PV) facility or battery energy storage (BESS) near you, consider yourself blessed. You get to shake up your assumptions about “green,” “clean,” and “renewable” energy. You get to practice humility while explaining technologies’ not-so-sunny sides so that neighbors and legislators who believe that “renewables” cannot possibly have problems…actually hear you.
You get to learn a new chant: “Show me the professional engineer’s report certifying that this project’s hazards are mitigated”—when, honestly, you’d much rather clean a closet.
For starters, admit that in your zeal to prioritize health and safety, you’ve made mistakes. Recognize that we are all powerless over “green” industries, and that our lives have become unmanageable. Salute yourself for exploring your part in society’s predicament.
Step 2: Learn how electricity stays reliable and affordable. Get to know your county’s land use codes. Research solar PVs’ and BESS’s shadow sides—from their cradles-to-graves.
Step 3: Remember your goal: your county permits the facility only if protective health and safety conditions are met.
The vast majority of energy is consumed, toxins are emitted and human rights are violated while manufacturing a product.
Would your county require the developer to prove that its raw materials were sourced only from companies that can verify worker and environmental protections?
To pursue a safe solar facility in your county, find out where the power it generates will go, if the facility will connect to the grid, if it will need new power lines, transformers and substations—and if so, this equipment’s environmental impact.
From installation to “decommissioning” (dealing with end-of-life waste), require the developer to carry liability insurance for the project—not to self-insure. (If a self-insured developer files for bankruptcy, your county will pay to dispose of the project’s hazardous waste.)
Get written answers to questions such as: How much water will the developer use during construction? Where will it come from? Where will wastewater go? To protect groundwater, will used construction water need treatment?
Require the developer to keep all soil on site. Clarify in writing that only 400 acres (say) of land can be disturbed at a time to prevent stormwater runoff. (A big rain after a clear-cut would result in disaster.) After clearing an area (i.e., of shrubs or trees), the developer must plant grass within X number to hold soil and prevent sediment runoff. The developer must set up stormwater basins.
Your county staff, planning commissioners and board of supervisors will have to evaluate the project against the county’s ordinance about stormwater runoff and sediment in waterways or land use issues specific to your area’s topography.
Since panels’ glare can blind pilots flying overhead, and the FAA has rules about the distance between a solar PV field and an airport, do a ForgeSolar “solar glare” analysis. Ask the court to pause the project until a licensed professional engineer completes a solar glare report.
Panels hold chemicals, including per- and polyfluoroalkyl substances (PFAs). In a hailstorm, panels can crack—and leach chemicals. Would your county require monthly soil testing at specified locations to ensure no chemicals leach into the soil? If they do leach, specify what the developer will do to remedy the soil.
Solar panels are electrical equipment. All electrical equipment poses fire hazards. To reduce the risk of fire, your county should specify how long grass (or other vegetation) can grow before the developer must cut it.
If a fire occurs during the day, the solar panels will not stop collecting sunlight and converting it into electricity: you cannot de-energize solar panels. Firefighters cannot spray burning panels with water because water conducts electricity, and water will not put out a solar panel fire. It can only cool it. At a public hearing in Spotsylvania, Virginia, the county’s fire chief said he would not try to extinguish a solar PV fire. He would just hose down everything near it. What is your county fire chief’s plan?
Batteries are made with lithium. Mining and processing lithium ravages ecosystems. Read about Max Wilbert and Will Falk’s efforts to stop lithium mining at Thacker Pass, Nevada. FYI—Max grew up believing that solar PVs, wind turbines and e-vehicles would help sustain our society.
Batteries provide high energy storage. One BESS battery can be the size of a small trailer. With a short and a discharge, you can end up with arcing, extremely dangerous, toxic, even runaway fires. Because of batteries’ toxic chemicals, when a BESS catches fire, nearby residents should not leave their homes, open windows, or run ventilation systems for 24 hours or more. Roads and businesses will close. BESS fires have become common—if little-known. Here’s an example at Moss Landing, California. Here’s a database of BESS failures.
Your county should require the developer to provide a professional engineer’s “sealed” report that all fire hazards have been evaluated and mitigated; and that this BESS will not catch fire like the one at Moss Landing or others listed in the database.
To keep cool, batteries require a cooling system. How much water will this BESS use? Where will its water come from? Where will its wastewater go? To protect groundwater, will it need treatment?
If your county officials permit a BESS with lithium-ion batteries, ensure in advance of a fire that your local government has:
When the equipment ages and the facility is no longer efficient enough to be profitable, either all panels will be replaced and all wires (and batteries, if there’s a BESS) will be upgraded—or the developer will abandon the project. Solar panels and batteries do not biodegrade: they’re hazardous waste.
Sending panels and batteries to a recycling center is actually very expensive. Get the developer to post a bond with the county so that it won’t be burdened with decommissioning costs if the developer files bankruptcy.
Remember your goal: county commissioners will permit the developer’s project only if it agrees to your conditions. This will require:
If your county has in-house experts to evaluate a solar facility’s chemical run-off, fire hazards, and economics, etc., ask them to provide reports. If your county does not have such experts, then it can require the developer to provide funding so that the county can hire expert consultants chosen by the county to evaluate the facility.
Katie Singer writes about technology’s impacts on nature on Substack. Her books include An Electronic Silent Spring and Honoring our Cycles.
Tags: community energy projects, Technology
By Ben Shread-Hewitt, Eurasia Review
Local officials warn the peatlands may already be degrading — and unlike most environmental damage, peatland loss is irreversible.
November 11, 2026
By Shannon Gibson, The Conversation
As world leaders meet at COP31, Nov. 9-20, here are five tactics powerful attendees use to delay, weaken, or redirect climate action while appearing committed.
November 10, 2026
By Joe Brewer, Earth Regenerators
The next few years (and decades) will be extremely challenging. We need a Dandelion Strategy capable of dealing with this complex reality.
November 5, 2026
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