Solar Now

A practical framework helps solar asset owners and maintenance teams distinguish immediate safety risks from defects requiring investigation or monitoring.
GBP K.K. outlines a framework for assessing suspect photovoltaic (PV) modules, helping solar asset owners and maintenance teams decide when to isolate, replace, investigate or monitor affected equipment.
The framework considers three factors: whether a module presents a safety risk, how the defect affects performance, and whether its condition is deteriorating. It explains why continued electricity generation does not establish that a module is safe, and why visible defects require assessment before a replacement decision is made.
Broken glass illustrates the distinction. A module may continue producing power even when its mechanical protection or electrical insulation is compromised. A crack within a silicon cell requires a different assessment: it may have little immediate effect, but can contribute to power loss or hot spots if it isolates active cell area or propagates.
The framework sets out four possible actions:
Isolate: Where a credible immediate electrical, fire, mechanical or personnel-safety risk exists, qualified personnel should follow site isolation and access-control procedures and assess the affected equipment.
Replace: Where a confirmed defect breaches safety or operating requirements, or replacement is the approved decision over the remaining service life, preserve evidence and confirm replacement compatibility.
Investigate: Where the cause, extent or consequence is uncertain, select tests that resolve the remaining questions and compare results against a valid reference.
Monitor: Where a defect is understood, stable and accepted below a documented project-specific risk threshold, assign responsibility, set review dates and define escalation triggers.
Discolouration, cell cracks and thermal anomalies do not provide the same information. Discolouration may be cosmetic or indicate degradation. Unusual heating may result from shading, reflections, bypass-diode operation, mismatch, poor connections or a hot cell.
There is no universal colour or temperature-difference threshold for replacement. Findings should be assessed against measurement conditions, module design, manufacturer requirements and site risk controls.
Low output also requires checks beyond the module. Soiling, shading, sensor errors, weather conditions, inverter clipping, wiring and fuses can affect measured performance.
No single diagnostic method identifies every defect or establishes every safety risk.
Visual inspection can identify broken glass, frame or backsheet damage, junction-box problems, discolouration and delamination. Infrared thermography can locate unusual heating, although irradiance, wind, viewing angle and operating conditions influence the result.
Current-voltage testing assesses electrical performance and curve shape, with appropriate temperature and irradiance corrections. Electroluminescence can reveal cell cracks and inactive areas. Insulation and safety testing helps assess electrical safety and suitability for return to service.
After hail, intact-looking glass does not rule out cell microcracks. Where storm damage is visible, the affected system should remain shut down pending qualified visual and electrical inspection, with electrical faults checked before repowering.
Assessment records should identify the module, observations, test conditions, comparison baseline, excluded causes and reasons for the decision. Monitoring plans should specify who is responsible, when inspections will occur and which changes require escalation.
Where replacement is necessary, matching nominal wattage alone is insufficient. Electrical characteristics, dimensions, connector type, mounting requirements and mechanical loading must be reviewed against the existing string, inverter and installation.
GBP K.K. can support this review using existing module datasheets, string and inverter configurations, site conditions, dimensional constraints and defect records. Proposed replacements remain subject to project approval and recommissioning under applicable safety and technical procedures.
Based in Japan, GBP K.K. offers end-to-end renewable energy solutions — from solar component manufacturing and system design to construction and O&M. Feel free to reach out to us for anything renewable energy related!
Melbourne, Australia – 22 October 2026 – NOX Energy is expanding its apartment EV charging network across Melbourne, with charging now live for residents in more than 1,000 apartments across four sites in Kensington and Brunswick. NOX Energy has also been appointed EV charging provider for Assemble, an end-to-end housing company designed to enable institutional investment in housing in Australia, with a focus on low and middle income housing. The appointment will deliver EV charging to residents in more than 800 homes across two new developments in Footscray and Coburg, bringing NOX Energy’s Melbourne footprint to six apartment communities and…
*** Spokespeople are available for comment *** Thursday 22 October 2026 Almost two-thirds of Australians believe nuclear power should be part of the nation’s energy future, as new polling reveals growing concerns about Australia’s ability to meet its electricity needs. New YouGov research commissioned by Nuclear for Australia has found that 63% of Australians believe nuclear power should be considered, while 60% believe it will form part of Australia’s future energy mix. The findings come as both the demand for and cost of electricity grows, driven by AI, data centres and electrification, while the ongoing conflict in the Middle East…
Key Facts: Perth firm APD Global wins Transmission & Distribution category at Bentley’s 2026 Year in Infrastructure Awards, a first for Australia Recognised for…
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“Are you parking this in the sun?”
Photo Credit: iStock
A New Yorker trying to size an off-grid solar setup for a window AC unit that would support a walk-in cooler nonstop from May through September went to Reddit for advice.
Commenters said the bigger variable may be the cooler’s construction, not the panels themselves.
Saying they were “new to solar and just looking for help with the math and what size I would need,” the poster asked about powering a 10,000-BTU window air conditioner with a CoolBot in an off-grid New York setup.
They said they had a converted trailer “about 8ft deep x 6 wide x 5 high,” with “3-inch insulation all around.” They said it “runs well when plugged in,” but needs to move to “a new property that doesn’t have power.”
Insulation seemed to be a big factor. One responder, describing themself as a commercial refrigeration teacher, wrote, “Three inch insulation is somewhat inadequate for a cooler. Industry specs start at four and can be thicker depending on a lot of factors.” 
The same commenter added that, depending on heat gain, the unit could run “20-30 minutes per hour on average.”
The Redditor’s case is more of a DIY setup, but for others looking to go off-grid or hybrid off-grid (ability to run the house in a power outage) with rooftop panels, that kind of solar setup can be one of the best ways to save money on home energy over the long run. Readers comparing options can use EasyHome‘s free explorer tool to see pricing and savings from vetted installers in their area, with most installers able to offer battery storage as well.
One commenter said a cooler operating continuously for five months should probably be sized component by component. 
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.
“I would do the calculations and buy the components to build it rather than trying to find a kit,” they wrote.
The same reply suggested the storage side could be enormous, saying the system might need “like a Tesla power wall or something huge like that.” In other words, battery capacity could matter as much as the panel array.
Construction details and placement could also change the answer significantly. The refrigeration teacher warned that studs can “move a lot of heat into the space,” and they also asked, “Are you parking this in the sun?”
What looks manageable on the grid can become a far pricier solar job once nonstop runtime, battery needs, direct sun, and modest insulation are all part of the calculation.
Before picking equipment, commenters suggested getting real-world consumption data. Rather than estimating only from the 10,000-BTU rating, one recommendation was to meter the window unit for several days and see how much electricity it actually uses.
The commercial refrigeration teacher also pointed back to the trailer itself before any solar sizing happens. That means reviewing the 3-inch insulation, checking whether the floor is insulated, accounting for heat moving through studs, and considering whether the unit is parked in full sun.
For anyone trying to price solar for a more expansive load like than a more DIY setup like this cooler would take, EasyHome‘s free explorer tool can help make sense of local pricing, savings, and installer options without locking you into a one-size-fits-all kit. 
Pairing solar panels with a battery also allows homeowners to maximize savings and power their home when the grid goes down. Sites like EasyHome allow you to curate competitive bids from local installers without sharing contact information unless you decide to move forward.
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.
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Simulated tin perovskite solar cell reaches 26.91% efficiency
A numerical study of a lead-free perovskite solar cell reports a theoretical power-conversion efficiency of 26.91% after jointly optimizing its absorber, transport layer, interfaces, electrical losses, operating temperature and rear contact. The modeled device uses a 600 nm FASnI3 absorber, a 200 nm Cs2SnI6 interfacial layer, a ZnOS electron-transport layer and a metal back contact with a work function of 5.2 eV. Under the selected conditions, the simulated cell produces an open-circuit voltage of 1.09 V, a short-circuit current density of 29.40 mA cm−2 and a fill factor of 83.85%. These results represent an optimized SCAPS-1D prediction rather than a measured efficiency from a fabricated device, and the authors caution that several important losses and degradation mechanisms are absent from the model.
FASnI3 is a tin-based metal-halide perovskite being investigated as an alternative to lead-containing absorbers because of the toxicity concerns associated with lead. The material has an optical band gap of about 1.41 eV, while Cs2SnI6 has a slightly wider gap of 1.48 eV. In the proposed stack, FASnI3 serves as the principal light-absorbing layer, while Cs2SnI6 is treated as both a photoactive secondary layer and an interfacial passivation layer. The authors propose that it may suppress recombination and limit interactions between the absorber and rear electrode, but the environmental-protection and stability benefits remain theoretical because the simulation does not model moisture, oxygen, ion migration or long-term chemical degradation.
The calculations were performed with SCAPS-1D version 3.3.10 using a one-dimensional drift-diffusion framework. This software numerically solves the coupled Poisson and electron and hole continuity equations to calculate carrier generation, transport, recombination, current-voltage behavior, external quantum efficiency and band diagrams. The devices were evaluated at 300 K under standard AM 1.5G illumination, with FTO as the front transparent contact and a flat-band condition at the rear. Most material parameters were taken from literature, including band gaps, carrier mobilities, effective densities of states, doping and defect concentrations. Because these inputs vary among publications, the comparison of electron-transport materials is better interpreted as a device-level screening exercise than as a definitive ranking of intrinsic material performance.
ZnOS produced the strongest initial result among nine candidate electron-transport layers, which also included C60, CeO2, IGZO, PCBM, SnO2, TiO2, ZnO and WS2. Its simulated power-conversion efficiency was approximately 22.99%, compared with about 18.49% for WS2 and 17.39% for ZnO. The ZnOS device delivered an open-circuit voltage of 1.02 V and a short-circuit current density of 27.47 mA cm−2, together with the highest fill factor in the comparison. Band alignment, mobility and interfacial quality were identified as the main explanations for the differences. The model associated ZnOS with a favorable conduction-band offset, effective electron extraction, limited hole backflow and comparatively low interfacial recombination, although these attributes were not tested experimentally.
The unoptimized FASnI3/Cs2SnI6 structure initially achieved a simulated efficiency of 16.87%, with an open-circuit voltage of 1.00 V, a short-circuit current density of 24.46 mA cm−2 and a fill factor of 68.81%. Increasing the FASnI3 thickness from 100 to 600 nm raised the modeled efficiency from 14.93% to 24.32%, the open-circuit voltage from 0.95 to 1.03 V and the short-circuit current density from 19.79 to 28.52 mA cm−2. The gain in current largely flattened beyond approximately 400–500 nm, indicating that recombination and transport constraints increasingly offset the benefit of additional absorbing material. Varying the Cs2SnI6 layer from 10 to 200 nm raised efficiency from about 17.0% to 18.6%, with little change in current density, supporting its proposed role as an interfacial transport and passivation layer rather than the main optical absorber.
Defect density was among the most influential modeled variables. At a bulk defect density of 1 × 10^13 cm−3 in FASnI3, the simulated device reached an efficiency of 23.91%, an open-circuit voltage of 1.03 V, a current density of 27.51 mA cm−2 and a fill factor of 83.98%. Increasing the defect density to 1 × 10^19 cm−3 lowered the corresponding values to 10.49%, 0.73 V, 21.43 mA cm−2 and 66.20%. The model attributes this decline to trap-assisted Shockley-Read-Hall recombination, shorter carrier lifetimes and reduced collection of photogenerated charge. Interface defects at the ZnOS/FASnI3 contact caused a smaller efficiency decrease, from roughly 23.29% to 22.94% over the tested range, whereas efficiency at the FASnI3/Cs2SnI6 interface remained near 22.99% as its defect density rose from 10^13 to 10^19 cm−3.
Electrical parasitics proved especially damaging to fill factor. Raising the area-specific series resistance from 1 to 50 Ω cm2 reduced simulated efficiency from 22.35% to 5.08%, lowered the fill factor from 79.45% to 25.26% and reduced current density from 27.45 to 19.62 mA cm−2, while leaving the open-circuit voltage at 1.02 V. Conversely, increasing shunt resistance from 100 to 5,000 Ω cm2 raised efficiency from 13.94% to 22.82% and the fill factor from 53.88% to 81.09%, after which the response approached saturation. The modeled optimum therefore required very low series resistance and very high shunt resistance. Raising the back-contact work function from 4.5 to about 5.1 eV also improved voltage, fill factor and efficiency, with little effect on current density, before the response reached a plateau.
Temperature was modeled across 275–450 K. As temperature increased, current density changed little, but open-circuit voltage fell from 1.06 to 0.75 V, the fill factor declined from 82.5% to 74.62% and efficiency dropped from 24.2% to 15.35%. The authors associate this behavior with temperature-dependent changes in defect activation, carrier diffusion, resistive losses and carrier-carrier interactions. The modeled maximum occurred at 275 K, but this steady-state electrical result cannot establish operational stability or longevity. The authors state that the model omits moisture ingress, oxygen-driven oxidation of Sn2+ to Sn4+, ion migration, phase transitions, interfacial interdiffusion and light-induced degradation, all of which would require controlled aging and light-soaking experiments to assess.
The final optimized configuration, FTO/ZnOS/FASnI3/Cs2SnI6/back contact, incorporated low bulk and interface defect densities, a 600 nm absorber, a 200 nm Cs2SnI6 layer, a Cs2SnI6 acceptor concentration of 10^19 cm−3, a shunt resistance of 5,000 Ω cm2, a series resistance of 1 Ω cm2 and a 5.2 eV rear-contact work function. Its simulated external quantum efficiency extended from 300 to 900 nm, and its illuminated impedance spectrum showed a larger semicircle than the initial device, which the model interprets as higher interfacial recombination resistance. Nevertheless, SCAPS-1D assumes homogeneous layers and idealized transport, does not capture grain boundaries, pinholes, lateral nonuniformity, hysteresis, chemical reactions, parasitic optical absorption or three-dimensional transport, and can model only seven layers. The 26.91% result should therefore be treated as an upper-bound computational outcome for the selected assumptions, not as evidence that a working 26.91%-efficient solar cell has been built. Experimental fabrication, material synthesis, controlled environmental exposure, thermal aging, light soaking and maximum-power-point tracking would be needed to determine whether the proposed interface can deliver the modeled electrical benefits in practice.
Subject of Research: Numerical optimization of a lead-free FASnI3/Cs2SnI6 perovskite solar cell
Article Title: Cs 2 SnI 6 -Mediated interfacial engineering for high-performance FASnI 3 perovskite solar cells: A SCAPS-1D study
Article References: Ullah, S., Shah, A. U. I., Khan, F., & Meyer, E. L. (2026). Cs2SnI6-Mediated interfacial engineering for high-performance FASnI3 perovskite solar cells: A SCAPS-1D study. Results in Engineering, 32, Article 113592. https://doi.org/10.1016/j.rineng.2026.113592
Image Credits: AI Generated
DOI: 10.1016/j.rineng.2026.113592
Keywords: perovskite solar cells, tin perovskite, FASnI3, Cs2SnI6, SCAPS-1D, lead-free photovoltaics, interfacial engineering, defect passivation, band alignment, solar-cell simulation, Mediated, interfacial
News Source: Denise Maddox. (October 22, 2026). Simulated tin perovskite solar cell reaches 26.91% efficiency. Scienmag.
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New Delhi: Odisha is set to become the first state in India to have a dedicated agrivoltaics policy, with the state government finalizing its landmark Agri-PV Policy 2026. Deputy Chief Minister and Minister of Agriculture & Farmers’ Empowerment and Energy, Kanak Vardhan Singh Deo, made the announcement today while speaking at the 7th Agrivoltaics World Conference 2026 at Bharat Mandapam, New Delhi.
Addressing international delegates, scientists, policy makers and investors during the Keynote Address of the Ministerial Session co-organized with the Ministry of New and Renewable Energy, IISD and CEEW, the Dy CM outlined Odisha’s vision of “One Field, Two Harvests” — harmonizing agricultural production with clean energy generation under the principle that the farmer comes first and the solar panel second.

The proposed policy sets an ambitious target of deploying 1 GW of agrivoltaic capacity across Odisha by 2030. It mandates strict safeguards requiring at least 90 per cent of every project site to remain under active cultivation while maintaining the land’s agricultural classification and crop insurance eligibility.
The framework offers flexibility and economic security to farmers — enabling them to either own systems directly to earn dual income from crop sales and power generation, or partner with solar developers under assured long-term lease rents.
To provide certainty for developers and investors, Odisha will offer 25-year Power Purchase Agreements with GRIDCO, guaranteed off-take, grid connectivity and open-access rights, while simplifying farmer onboarding by integrating Agri-PV incentives with support for drip irrigation, cold storage, solar pumps and agro-processing.

Highlighting climate resilience amid rising temperatures and erratic rainfall projected by 2070, Singh Deo said raised solar arrays will act as a shield for smallholders by creating cooler microclimates, conserving soil moisture and protecting crops and field workers.
“We want to make our farmers empowered with Annadata se Urjadata tak,” he said. The initiative builds on Odisha’s Renewable Energy Policy 2022 and the RE Investor Conclave in February 2026, which secured Rs 67,000 crore in clean energy commitments across 6.8 GW.
Ground-level implementation has already begun with a 1 MW Agri-PV project and a pilot collaboration with Nanyang Technological University, Singapore, to test advanced solutions on Odisha’s 40.7 lakh acres of suitable cropland and 47.7 lakh acres of fallow land.

The Dy CM invited global research institutions, private investors and sister states to join Odisha in building a farmer-centered national agrivoltaics movement. ACS Energy Vishal Kumar Dev, Commissioner-cum-Secretary Agriculture & Farmers’ Empowerment Sachin Ramchandra Jadhav and other senior officials of the Odisha government also participated in the conclave.
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Blaise Gomez
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Oct 22, 2026, 5:36 PM
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Updated
Could lowering your electric bill be as simple as plugging a solar panel into a wall outlet?
That’s the idea behind a growing push to legalize plug-in solar panels in New York. But how much money could homeowners actually save, and are the devices safe?
Advocates gathered outside Kingston City Hall Thursday, calling on Gov. Kathy Hochul to sign legislation known as the SUNNY Act, which passed both houses of the state Legislature in May.
The devices, sometimes called balcony solar panels, are smaller than traditional rooftop systems. They use an inverter to convert sunlight into electricity that can be fed into a home’s electrical system. Supporters say the technology could help homeowners and renters offset rising utility bills without investing in expensive rooftop solar systems.
“We should be giving every resident of the state of New York the option to reduce their bills,” said Ulster County Executive Jen Metzger.
Kingston Mayor Steve Noble said the technology could be especially beneficial in communities where residents don’t have access to suitable rooftops.
“We have so many Kingstonians who do not have access to their own rooftops and may not be able to qualify for some of our solarized programs,” Noble said.
Woodstock homeowner Bennet Ratcliff brought his own plug-in solar panel to Thursday’s demonstration, showing how the device connects to an inverter and an electrical outlet. Ratcliff said the system helps him generate some of his own electricity, but acknowledged he doesn’t know exactly how much he’s producing or saving because he’s still disputing past usage with his electric company.
“This isn’t going to take care of all your energy, but it will take care of some of it,” Ratcliff said.
Advocates at Thursday’s event said the systems can cost anywhere from a few hundred dollars to several thousand, depending on their size and capabilities.
But the amount of electricity they generate is relatively small compared with a traditional rooftop solar system. For example, a single panel rated at approximately 390 watts could generate roughly one to two kilowatt-hours of electricity on a reasonably sunny day. That’s around 5% to 10% of the average New York household’s daily electricity consumption, based on federal energy data.
Actual output depends on sunlight, weather, placement and other factors. Savings also depend on electricity rates, how much generated power a household uses and any additional installation costs. That means a system costing hundreds or thousands of dollars could take years to pay for itself.
Despite the name, installation might not be as simple as plugging a panel into an outlet.
Advocates acknowledged Thursday that some homes could need electrical upgrades, specialized connections or other work to safely accommodate the devices.
Under existing rules, plug-in solar systems are generally subject to utility interconnection requirements similar to those governing larger solar installations.
The SUNNY Act would create a separate category for smaller systems producing no more than 1,200 watts, eliminating the need for advance utility interconnection approval. Customers would still need to notify their utility after installation.
The legislation also calls for independent safety certification, compliance with applicable building and fire codes, and technology to prevent the devices from dangerously energizing electrical systems during an outage.
Ten states, including Connecticut and New Jersey, have passed legislation addressing plug-in solar, although some laws have yet to take effect.
Still, there are concerns about safety.
UL Solutions, an independent product-testing and safety organization, has warned that plug-in systems could overload household wiring without tripping circuit breakers. The organization has also identified potential electric shock hazards and problems involving ground-fault protection.
During debate in Albany, Republican Assemblymember Phil Palmesano raised similar concerns and urged Hochul to veto the legislation until additional safety and utility reviews could be completed.
Supporters argue the bill’s certification and safety requirements address those risks. Assemblymember Sarahana Shrestha, a co-sponsor, joined Thursday’s rally urging the governor to act.
“Gov. Hochul — sign it today while it’s still sunny,” Shrestha said.
The governor’s office says the legislation has not yet been delivered to Hochul’s desk. Spokesperson Ken Lovett said she plans to review it and remains committed to supporting solar energy to help keep costs down, but did not say whether she intends to sign it.
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The Moroccan Agency for Sustainable Energy (Masen) has launched pre-qualification for its Noor PV Multisites program, which calls for a total of at least 350 MW of solar capacity.
The program will be delivered under a turnkey engineering, procurement and construction (EPC) model, with the selected contractor responsible for design, equipment supply and construction, followed by operation and maintenance, said Masen.
Applications are due by noon Moroccan time on Nov. 30, and the tender documents are available on Masen’s e-tendering platform.
The request for qualification covers installations of between 40 MW and 170 MW each across the Casablanca-Settat, Béni Mellal-Khénifra, Marrakech-Safi, Souss-Massa and Guelmim-Oued Noun regions, according to TaiyangNews, which reported that the program comprises six installations.
The program follows Masen’s 305 MW Noor Atlas program, under which construction began in March on six plants. For Noor Atlas, Masen handles operation and maintenance under an EPC framework and has signed power purchase agreements with the national utility, ONEE. Commissioning of those plants is scheduled to begin in July 2027.
Morocco installed 204 MW of utility-scale solar in 2025, according to the National Electricity Regulatory Authority (ANRE), bringing cumulative utility-scale PV capacity to 1,285 MW, according to ONEE. Renewables accounted for 45.5% of installed capacity by mid-2025, against a 2030 target of 52%.
Morocco is also building out its wider clean energy industry. Chinese company Gotion High-Tech operates what has been described as Africa’s first battery manufacturing plant in the country, producing lithium-iron-phosphate cells for the automotive market, while researchers have found floating PV to be economically viable at Moroccan dams.
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Generation from U.S. small-scale solar photovoltaic systems smaller than 1 MW reached 92,979 GWh, up from 18,812 GWh a decade ago, according to the latest Annual Electric Power Industry Report from the U.S. Energy Information Administration (EIA).
California led national generation in 2025, accounting for 37% of total rooftop solar output at 34,411 GWh. Between 2024 and 2025, California rooftop solar generation grew by 8% as total operating small-scale capacity expanded from 18 GW to 20 GW.
National generation growth peaked in 2022, when total small-scale output expanded 25% year-over-year amid record capacity additions. The expansion was partly fueled by regulatory deadlines, including California’s transition from Net Energy Metering (NEM) 2.0 to the Net Billing Tariff (NEM 3.0) in April 2023. Grandfathering provisions under NEM 2.0 drove higher installation volumes before export compensation rates were reduced.
Arizona ranked second in national generation in 2025, delivering 5,795 GWh, or more than 6% of the national total. Arizona rooftop generation grew 6% in 2025, down from a peak annual growth rate of 22% recorded between 2022 and 2023. Growth in the state continues to be supported by a 25% state income tax credit alongside local utility incentives.
Texas and Florida experienced substantial growth over the decade, backed by property tax exemptions and state-specific programs. Annual small-scale solar generation in Texas grew from 391 GWh in 2016 to 5,408 GWh in 2025. Over the same period, Florida generation expanded from 205 GWh to 5,198 GWh.
New York ranked as the fifth-largest small-scale solar producer, supported by state incentive programs and technology improvements despite lower regional solar irradiance. State-level incentive structures have driven similar growth in New Jersey, Massachusetts, and Illinois.
While overall small-scale generation continues to expand year-over-year, national annual growth rates have moderated since 2022.
The EIA estimates small-scale generation by combining utility survey data on customer counts and aggregated capacity with modeling tools from the National Renewable Energy Laboratory, including PVWatts and the System Advisor Model.
Register for the October 21, 2026 live webinar session of pv magazine USA week to learn about the latest in distributed scale solar and storage, including insights on virtual power plants, plug-in solar, energy storage for homes and businesses and more.

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Join pv magazine for an expert session exploring quality, technology and the challenges of scaling India’s solar industry.
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HOTAN, China Oct. 22, 2026 /PRNewswire=YONHAP/ — The 1-million-kilowatt photovoltaic desertification-control project in Minfeng, Hotan, Xinjiang, built with the participation of China Railway 23rd Bureau Group, has recently achieved full-capacity grid connection of all 101 arrays. It is one of southern Xinjiang’s largest integrated centralized photovoltaic and desertification-control projects and a “green Great Wall” at the desert’s edge that combines ecological benefits with energy value.

A 'Blue Great Wall' Rises on the Gobi Desert

The project has a total investment of 2.97 billion yuan and covers more than 14.6 million square meters. It uses an innovative three-dimensional ecological management model: power generation above the panels, sand stabilization beneath the panels and grass planting between the panels. While generating electricity, the photovoltaic panels provide shade for drought-tolerant sand-stabilizing plants beneath them, reducing water evaporation and promoting vegetation recovery.

Once operational, the project’s first-year on-grid electricity output is expected to reach 1.9 billion kilowatt-hours, equivalent to saving 580,000 metric tons of standard coal and reducing carbon dioxide emissions by 1.55 million metric tons. It will not only effectively supplement clean energy supply to the southern Xinjiang power grid and ease the local imbalance between power supply and demand, but also inject strong “green momentum” into Xinjiang’s efforts to build a national comprehensive new energy base and promote high-quality development in southern Xinjiang.

Source: China Railway 23rd Bureau Group

[※ Editor’s note = This PRESS RELEASE was provided by the news provider, and Yonhap has not edited the content in any way, nor does it reflect the editorial direction of Yonhap.]
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ST. PAUL, Minn. — Minnesota is on track to reach two major clean-energy milestones in the next few months: The state’s 400th solar-powered school is scheduled to go online, and the Minnesota Department of Commerce expects to award its 200th Solar for Schools grant.
Commerce highlighted that progress at Justice Alan Page Elementary School in Maplewood, where school officials and students showed firsthand how state investments are bringing clean-energy technology into schools and onto school buses. The event also highlighted Commerce’s electric school bus grant program, which is helping school districts put new electric buses on the road.
Together, the Solar for Schools and electric school bus programs are helping schools manage energy costs, modernize transportation and give students opportunities to learn about clean-energy technology firsthand. Recently delivered buses are now transporting students during the 2026-27 school year.
“When we invest in Minnesota schools, we’re investing in more than classrooms and textbooks. We’re investing in the infrastructure our communities depend on and the opportunities we want the next generation to have,” Commerce Temporary Commissioner Julia Dreier said. “These programs are bringing new technology to schools across Minnesota, and we’re seeing those investments become real projects that students and communities can benefit from every day.”
The Minnesota Department of Commerce says the state is approaching a significant milestone, with its 400th solar-powered school scheduled to come online before the end of 2026. That’s more than double the approximately 190 Minnesota schools that had solar installations before Commerce launched its Solar for Schools program in January 2022.
Commerce also expects to award its 200th Solar for Schools grant early next year, marking continued growth for a program that helps schools install solar energy systems, lower electricity costs and bring renewable energy into the classroom. Since the program launched, Commerce has awarded or reserved nearly $32.6 million in grants for school solar projects.
These projects represent nearly 25 megawatts of solar capacity and are expected to generate more than 29 million kilowatt-hours of electricity annually — roughly enough to meet the annual electricity needs of 3,100 average Minnesota homes. That’s an estimated $46 million in electricity savings over 20 years for participating schools — money that can instead support students, classrooms and other educational priorities.
While not all of Minnesota’s solar-powered schools received funding through Solar for Schools, Commerce says the program has played an important role in expanding access to solar energy at schools across the state. Minnesota ranks No. 7 nationally for its number of solar-powered schools, according to the most recent Brighter Future study.
The benefits extend beyond electricity savings. Participating schools incorporate solar energy into their educational programming, creating opportunities for students to explore how electricity is generated and see renewable energy technology at work in their own schools.
“These are exciting milestones that are definitely worth celebrating, but the real story is what these investments mean for students and their schools,” Dreier said. “We’re making clean energy something students can experience firsthand, not just read about in a textbook. That hands-on learning makes a difference.”
Interest in the program continues to grow, with 27 schools having submitted full applications so far in 2026 and another six completing the first step of the application process for the second round of funding. Full grant applications are due Jan. 11, with grantees expected to be announced by the end of February.
Minnesota schools are also putting new electric school buses into service with support from Commerce’s Electric School Bus Grant Program, which was created in 2023. As of Oct. 21, Commerce has awarded nearly $8.8 million to 10 school districts to help purchase 23 electric school buses.
Electric school buses produce no tailpipe emissions, protecting children from harmful air pollution. These buses are also quieter and cheaper to operate and maintain, allowing districts to put money saved back into their classrooms.
Two new rounds of electric school bus grant funding — one focused on technical assistance and one on purchasing buses — opened Oct. 19, creating additional opportunities for Minnesota school districts to explore electric transportation. More information is available on Commerce’s website.
“There’s a lot that happens between awarding a grant and seeing solar panels on a school roof or a new electric bus picking up students,” Commerce Asst. Commissioner for Federal and State Initiatives Lissa Pawlisch said. “It takes school leaders, teachers, transportation teams, contractors and dedicated Commerce staff working together. It’s wonderful to see all that hard work turn into something students and their communities can benefit from every day.”
School District 622, which serves more than 10,000 students in the Twin Cities east metro area and is home to Justice Alan Page Elementary School, is putting state clean-energy investments to work through both Commerce’s Solar for Schools and electric school bus grant programs. The district received Solar for Schools grants totaling nearly $675,000 for solar installations at Justice Alan Page Elementary, Richardson Elementary and Carver Elementary.
Commissioned in 2025, the three solar installations are expected to generate more than 660,000 kilowatt-hours of electricity annually — enough to power approximately 71 average Minnesota homes for a year — while providing nearly $65,000 in estimated first-year electricity savings. At Justice Alan Page Elementary alone, the solar installation is projected to save the district more than $22,000 in electricity costs during its first year and approximately $900,000 over the system’s lifetime.
The district also received more than $1.2 million through Commerce’s electric school bus grant program to purchase three electric school buses and three charging stations. The buses are expected to begin transporting students throughout the district in mid-November.
“With the Department of Commerce Solar for Schools and Electric School Bus grant programs, District 622 is truly proving that we are ‘Ready for tomorrow,'” District 622 Supt. Christine Tucci Osorio said. “We are protecting the environment, capturing major fiscal savings and teaching our students how to lead into the future.”
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A Commerce waiver lets a Texas panel factory keep producing while a solar-cell plant is built.  Stock Titan
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Solar array | technology  Britannica
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Solar generation in Italy reached 5.32 TWh in Italy in September 2026, up 27.1% from the same month in 2025, according to grid operator Terna’s monthly electricity report.
Solar accounted for 48.6% of electricity generated from renewable sources during the month, with output increasing by 1.14 TWh year on year.
The increase was driven mainly by additional installed capacity, which contributed 731 GWh of extra generation, while improved resource availability added 404 GWh.
Renewable energy sources covered 39.4% of national electricity demand in September, down 2.3% from September 2025. Total net electricity generation was 6.4% higher year on year. Renewable sources generated 10.94 TWh, up 0.6%, while non-renewable sources produced 12.73 TWh, up 11.8%.
Electricity demand reached 27,765 GWh, an increase of 6.5% compared with September 2025 and 8.4% compared with September 2024.
Renewable generation capacity increased by 675 MW in September, 238 MW or 54.5% more than in the same month last year. In the first nine months of 2026, installed solar capacity grew by 4,834 MW, up 18.6% from the 4,078 MW added during the same period in 2025.
Italy added 911 MW of nominal operating storage power capacity in the first nine months of 2026, compared with 1,482 MW in the same period of 2025 – a decline of 572 MW, or 38.6%.
Maximum usable storage capacity increased by 1,962 MWh, down from 4,376 MWh in the first nine months of 2025, a reduction of 2,415 MWh, or 55.2%.
Terna reported 984,831 active energy storage systems as of Sept. 30, 2026.
From pv magazine Italia
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Decision allows for uninterrupted manufacturing activities as T1 Energy continues construction on solar cell fab in Texas
AUSTIN, Texas and NEW YORK, Oct. 22, 2026 (GLOBE NEWSWIRE) — T1 Energy Inc. (NYSE: TE) (“T1,” “T1 Energy,” or the “Company”) announced it has received a waiver from the Department of Commerce that supports our advanced photovoltaic module manufacturing activities and plans to expand U.S. solar cell manufacturing. T1, the largest American-owned manufacturer of silicon-based TOPCon solar modules, requested the expedited waiver to import up to 1.725GW of solar cells to facilitate uninterrupted manufacturing at T1’s G1_Dallas solar module facility in order to meet existing and expected contracted demand.
The waiver relates to the Trump Administration’s Section 232 proclamation in August that takes decisive steps to prevent market dumping and price manipulation of imported polysilicon and solar products derived from polysilicon. T1 unequivocally supports the proclamation and believes the Commerce Department’s action strengthens American manufacturing and provides a foundation for a thriving domestic solar industry. T1 requested the waiver to ensure access to necessary solar cells for a limited duration while construction on the 2.1 GW Phase 1 of the Company’s G2_Austin solar cell fab in Rockdale, Texas continues. T1 expects to produce the first solar cells at G2 in the first quarter of 2027.
“We appreciate the Commerce Department’s support in granting this waiver, allowing us to deliver solar modules assembled in Texas and expand U.S. solar cell manufacturing capacity without any unnecessary delays,” said Dan Barcelo, Chairman and CEO of T1 Energy. “Since the Section 232 proclamation, customer demand for domestic solar cells and modules has meaningfully risen, and receiving a waiver positions T1 to meet this demand.”
About T1 Energy
T1 Energy Inc. (NYSE: TE) is an energy solutions provider building an integrated U.S. supply chain for solar. In December 2024, T1 completed a transformative transaction, positioning the Company as one of the leading solar manufacturing companies in the U.S., with a complementary solar and storage strategy. Based in the U.S. with plans to expand its operations in America, the Company is also exploring value optimization opportunities across its portfolio of assets in Europe.
To learn more about T1, please visit http://www.T1energy.com and follow on social media.
Investor contact:
Jeffrey Spittel
EVP, Investor Relations and Corporate Development
jeffrey.spittel@T1energy.com
Tel: +1 409 599 5706
Media contact:
Russell Gold
EVP, Strategic Communications
russell.gold@T1energy.com
Tel: +1 214 616 9715
Cautionary Statement Concerning Forward-Looking Statements:
This press release contains forward-looking statements within the meaning of the Private Securities Litigation Reform Act of 1995. All statements contained in this press release that do not relate to matters of historical fact should be considered forward-looking statements, including, without limitation, statements with respect to the expected benefits of the waiver from the Department of Commerce and statements with respect to the expected timing for production of the first solar cells at G_2 Austin. These forward-looking statements are based on management’s current expectations. These statements are neither promises nor guarantees, but involve known and unknown risks, uncertainties and other important factors that may cause actual future events, results, or achievements to be materially different from T1’s expectations and projections expressed or implied by the forward-looking statements. Important factors include, but are not limited to, those discussed under the caption “Risk Factors” in T1’s Annual Report on Form 10-K for the year ended December 31, 2025, filed with the U.S. Securities and Exchange Commission (the “SEC”) on March 31, 2026, as amended and supplemented by Amendment No. 1 on Form 10-K/A filed with the SEC on April 30, 2026, and in T1’s other filings with the SEC, including risks related to: (1) T1’s ability to (i) construct and equip manufacturing facilities in a timely and cost-effective manner; (ii) target and retain customers and suppliers; (iii) attract and retain key employees and qualified personnel; (iv) protect its intellectual property; (v) comply with legal and environmental regulations; (vi) compete in international markets in light of export and import controls; (vii) incur substantially more debt; (viii) remediate the material weakness in T1’s internal control over financial reporting or otherwise maintain effective internal control over financial reporting; and (ix) qualify for the advanced manufacturing production credit under Section 45X of the Internal Revenue Code of 1986, as amended; (2) T1’s ability to secure a comprehensive financing solution to fund the remaining capital expenditure for G2_Austin Phase 1 on favorable terms, or at all, and the timing of such financing; (3) the concentration of T1’s operations in Texas and its dependence on a limited number of suppliers; (4) changes adversely affecting the flow of components and materials from international vendors, the costs of raw materials, components, equipment, and machinery; (5) general economic and geopolitical conditions; (6) changes in applicable laws or regulations, including environmental, export control and tax laws and incentives and renewable energy targets, as well as international trade policies, including tariffs, on T1’s products and competitive position; (7) the outcome of any legal proceedings relating to T1’s products and services, including intellectual property or product liability claims, commercial or contractual disputes, warranty claims, and other proceedings; and (8) the capital-intensive nature of T1’s business and its ability to raise additional capital on attractive terms or service its debt. The above referenced filings are available on the SEC’s website at http://www.sec.gov. Forward-looking statements speak only as of the date of this press release and are based on information available to T1 as of the date of this press release, and T1 assumes no obligation to update such forward-looking statements, all of which are expressly qualified by the statements in this section, whether as a result of new information, future events or otherwise, except as required by law. T1 intends to use its website as a channel of distribution to disclose information which may be of interest or material to investors and to communicate with investors and the public. Such disclosures will be included on T1’s website in the ‘Investor Relations’ section. T1, and its CEO and Chairman of the Board, Daniel Barcelo, also intend to use certain social media channels, including, but not limited to, X, LinkedIn and Instagram, as means of communicating with the public and investors about T1, its progress, products, and other matters. While not all the information that T1 or Daniel Barcelo post to their respective digital platforms may be deemed to be of a material nature, some information may be. As a result, T1 encourages investors and others interested to review the information that it and Daniel Barcelo posts and to monitor such portions of T1’s website and social media channels on a regular basis, in addition to following T1’s press releases, SEC filings, and public conference calls and webcasts. The contents of T1’s website and its and Daniel Barcelo’s social media channels shall not be deemed incorporated by reference in any filing under the Securities Act of 1933, as amended.
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Home » One Field, Two Harvests: Odisha Announces India’s First Dedicated Agri-PV Policy
Marking a historic milestone for India’s clean energy and agriculture sectors, Odisha has officially announced the finalization of its landmark Agri-PV Policy 2026. Unveiled at the 7th Agrivoltaics World Conference at Bharat Mandapam, New Delhi, the policy positions Odisha as the first state in India to introduce a dedicated framework for agrivoltaics.
Addressing international delegates, policymakers, and investors during the Ministerial Session, keynoted alongside the Ministry of New and Renewable Energy, IISD, and CEEW, Odisha’s Deputy Chief Minister Kanak Vardhan Singh Deo outlined the state’s visionary guiding principle: “One Field, Two Harvests.” The mandate ensures that the farmer comes first and the solar panel second.
“We want to make our farmers empowered with Annadata se Urjadata tak [from food giver to energy giver],” emphasized the Deputy CM, highlighting how elevated solar arrays shield smallholders against rising temperatures and erratic rainfall by creating cooler microclimates, conserving soil moisture, and protecting crops.
The proposed policy sets an ambitious goal to deploy 1 GW of agrivoltaic capacity across Odisha by 2030. To safeguard agricultural interests, strict legislative measures require at least 90 percent of every project site to remain under active cultivation, preserving the land’s original agricultural classification and crop insurance eligibility.
Farmers can choose to own systems directly to generate dual income streams from crop sales and electricity, or partner with solar developers under assured long-term lease rents. To attract institutional investment, Odisha offers 25-year Power Purchase Agreements (PPAs) with GRIDCO, guaranteed offtake, grid connectivity, and open-access rights.
Ground-level execution is already underway with an operational 1 MW Agri-PV project and a strategic pilot collaboration with Nanyang Technological University, Singapore. With 40.7 lakh acres of suitable cropland and 47.7 lakh acres of fallow land, Odisha invites global researchers, private investors, and sister states to join hands in building a farmer-centered national agrivoltaics movement.
 
Yajati K. Rout is a dynamic journalist at Pragativadi, known for delivering nuanced and impactful storytelling that spans Odisha’s societal fabric to global sports arenas. His reporting navigates seamlessly between grassroots realities, high-profile political developments, and the pulse of international tennis and cricket. With a flair for SEO-driven storytelling and a deep cultural lens, Yajati crafts content that resonates with a diverse readership—bridging insight with accessibility.
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The investment will strengthen Navitas’ finances, support manufacturing expansion
October 22, 2026
Follow Mercom India on WhatsApp for exclusive updates on clean energy news and insights
Surat-based solar module manufacturer Navitas Solar has secured growth capital of up to $20 million from Switzerland-based impact asset manager responsAbility and plans to use the funds for setting up a 2.2 GW solar cell manufacturing facility in India.
Navitas said the funding will support its backward integration strategy to expand its presence across the solar manufacturing value chain and strengthen domestic manufacturing capabilities.
The company operates across solar module and encapsulant manufacturing, engineering, procurement, and construction services, battery energy storage, and renewable power generation.
It also plans to expand into wafer and ingot manufacturing as part of its strategy to enhance backward integration.
Navitas has partnered with California-based perovskite technology company Caelux Corporation to develop and manufacture 5 GW of hybrid tandem solar modules in India.
The company manufactures mono-passivated emitter and rear contact and N-type TOPCon solar modules with capacities ranging from 40 Wp to 720 Wp. The company serves customers across India and is pursuing opportunities in international markets.
In June, Navitas Solar said it would invest ₹15 billion (~$170 million) to establish a 3.6 GW solar cell manufacturing facility and a pilot wafer-ingot production line in Gujarat. The project will be developed in phases, with Phase I targeted for commissioning in 2027, subject to market conditions and project readiness.
India’s operational solar cell manufacturing capacity has approached 50 GW, according to Mercom India’s PV Manufacturing Tracker. However, this nearly 50 GW capacity includes a stabilization period for newly commissioned cell lines. Another 270 GW+ of solar cell manufacturing capacity is in the pipeline, including nearly 190 GW under development and over 80 GW in announced projects.
The country’s operational solar module manufacturing capacity stands at 275 GW, approximately 5.5 times its operational cell manufacturing capacity. The country also has 265 GW of module manufacturing capacity in the pipeline.
Parth Shukla
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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.
“We did send free electricity to the grid as we’ve not sorted tariffs yet.”
Photo Credit: iStock
A U.K. homeowner with a new solar setup said a 6.2-kilowatt array and 9-kilowatt battery covered the home’s needs for essentially a full day without meaningful grid use.
But the export side was not fully sorted yet, so any surplus electricity still had to go back to the grid without payment.
In a Reddit post in r/SolarUK, the homeowner said the setup, which includes a 6.2kW PV array, 8kW Sig inverter, and 9kW Sig battery, delivered enough power on its first fully sunny day to make grid use negligible over 24 hours. Taking advantage of the excess generation, they wrote that they ran the washing machine “when the battery hit 100%.”
“We did send free electricity to the grid as we’ve not sorted tariffs yet (waiting on certificates etc),” the poster explained, referring to the U.K.’s Smart Export Guarantee (SEG) tariff that pays residents for the renewable electricity they send back to the grid. The home could already reduce imported electricity, but payments for exported power had not begun.
Replies centered on tariff choices and the money involved once export payments are active. One commenter advised, “Go for import and agile for export is my recommendation until they up the export on the fixed export.” 
“22 kwh in one day from 6.2kw is great, i have 4kw and when i get 15 on a sunny day,” one commenter applauded.
“I’d definitely smash more battery into that system,” one person suggested. “The key is how much you can export in a narrow window of peak pricing either via axle or agile export – and whether it’s worth it.”
Solar can cut home energy costs, especially when a battery lets homeowners use more of their own electricity instead of buying it later from the grid. Readers who want to compare pricing and projected savings can use EasyHome‘s free explorer tool to see options from vetted installers in their area.
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.
One person in the thread said the original poster’s household would probably need both an export MPAN, an administrative reference for a home’s exported electricity, and a G99 certificate, which grants permission to export electricity from a home to the grid, before they could begin exporting electricity and getting paid for it.
A system can start producing exportable surplus right away, but the value of that electricity can vary widely by location and plan, and installation day is not always the same as payment day. 
One commenter added, “Last month my average export price was 17.66p kWh,” which converts to $0.24, underscoring that delayed export setup can have a real cost.
Another commenter in Northern Ireland wrote, “Cries in Northern Ireland where we get 9.7p for export or something,” which converts to $0.13.
One commenter in the thread shared a possible shortcut for people dealing with SPEN. After the MCS paperwork and G99 connection agreement are in place, homeowners can contact the network operator to request an MPAN assignment and ask to be copied on the response. That can help new solar owners get the number as soon as it is issued instead of waiting for it to filter through office administration.
If you are considering a setup like this, EasyHome‘s free explorer tool is useful because it lets you compare vetted local installers, compare competitive bids, and review savings without sharing your contact information unless you choose to move forward. It can also help you explore backup battery storage, and pairing solar with a battery can maximize savings while keeping your home powered by solar when the grid goes down.
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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Energy Transition/ Private Equity & Venture Capital
Kenny Fisher October 22, 2026
Power electronics company Optivolt announced that it has raised $32 million in a Series A funding round, with proceeds aimed at advancing its platform to build an intelligence layer for solar energy, turning passive solar hardware into adaptive power systems to adapt to different conditions and maximize energy output in a real-world setting.
Founded in 2017 by CEO Rohit Kalyanpur, San Francisco-based Optivolt develops solar power electronics and intelligent panel technology. The company’s solutions integrate power management, monitoring and safety functions directly into solar panels, reducing the need for separate hardware components and supporting the operation of residential and utility-scale solar systems.
The company said that conventional solar panels can experience significant energy losses when individual cells underperform, reducing the output of larger sections of a panel. Optivolt’s Power Balancer technology addresses this issue by redistributing energy among groups of cells in real time. The system replaces conventional systems and integrates rapid shutdown and monitoring capabilities, reducing the need for separate power optimization and safety equipment.
Optivolt noted that internal testing found that panels incorporating its technology produced up to six times as much power as panels using bolted-on optimizers under defined shade scenarios.
The new capital will be used to expand manufacturing and deployment of its technology across residential and utility-scale solar projects, including projects designed to help power AI data centers, according to the company.
Kalyanpur said:
“For nine years, we’ve rebuilt the solar panel from first principles, embedding aerospace-grade power electronics so it can respond to Earth as it actually is, not the ideal conditions of a lab. The result is the first solar panel system that thinks for itself – one that adapts to shade, weather, dirt and degradation in real time, recovering energy conventional solar leaves behind.”
The new funding round was led by VXI Capital, a new hard tech fund founded by the former CTO of the Defense Innovation Unit of the U.S. Military, with additional participation from RA Capital, Valo Ventures, and Atlas Innovate, bringing Optivolt’s total capital raised to date to $42 million.
Orin Hoffman, Managing Director at VXI Capital, said:
“The next era of energy will not be built by simply installing more of the same passive solar panels we already have. It will be built by making solar intelligent enough to become the backbone of the global power system. Optivolt has spent nine years building the architecture for that future. This financing is about taking it from a technical breakthrough to the platform on which the next generation of solar is built.”

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Odisha to unveil India’s 1st dedicated Agri-PV policy, targets 1 GW by 2030  Business Standard
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A newly installed solar energy system at TLC Child & Family Services in Sebastopol is expected to save the nonprofit about $700,000 in electricity costs over more than 25 years, freeing up money for programs serving foster youth and families across Sonoma County.
Taylor Energy, a Sonoma County solar installer, and five business partners donated the 30-kilowatt rooftop system, recently installing it at TLC’s campus at 1800 Highway 116 N.
“Giving back to the community where we live and work has always been a big part of our business. TLC is a vital local organization, and we saw how much they would benefit if they weren’t spending so much on energy,” said Sean Taylor, president and founder.
The projected savings could support 20,011 nights of housing for foster youth or 2,802 mental health sessions for youth and families, according to project estimates based on TLC’s historical service costs.
The nonprofit also calculated that the savings could cover 1,191 operating days for a homeless youth drop-in center or orthodontic treatment for 171 foster youth. Those figures represent alternative uses of the same projected savings, not separate funding commitments.
TLC, founded in 1975, provides foster care and adoption services, behavioral health treatment, housing assistance and specialized education through Journey Academy.
“TLC is extremely grateful for Taylor Energy and its partners donating and installing solar panels at our campus in Sebastopol. This generous gift will provide substantial savings in utilities expenses for the next 25 years and beyond,” said Troy Niday, CEO of TLC.
According to its 2025 annual report, TLC received nearly 73% of its funding from state and local sources and devoted about 73% of its expenditures to programs. The organization reported that 82% of foster youth in its care were reunited with family members or adopted, while 91% of students at its Journey Academy increased their school attendance.
Taylor Energy designed and installed the system, while SEG Solar supplied panels, Enphase Energy provided microinverter technology, IronRidge supplied mounting equipment, CED Greentech participated as an equipment distributor, and Santa Rosa-based Exchange Bank provided support.
The donation comes amid difficulties for the residential solar industry following the expiration of the 30% federal residential clean energy tax credit at the end of 2025. Taylor Energy said it has experienced the industry slowdown.
The company has previously coordinated donated solar installations at West County Health Centers in Occidental, Greenacres Homes & School in Sebastopol, The Living Room women’s shelter in Santa Rosa, and an orphanage in Mexico. Taylor Energy estimates those projects will collectively save the organizations more than $1.7 million over their operating lives.
Beyond utility savings, Taylor Energy estimates the TLC installation’s lifetime emissions reductions will be equivalent to taking about 96 passenger vehicles off the road for one year, using Environmental Protection Agency conversion factors.
Taylor Energy finished the TLC installation during a community celebration Oct. 9.
Jeff Quackenbush joined North Bay Business Journal in May 1999. Reach him at jeff@nbbj.news or 707-521-4256.
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On October 9, the LONGi Energy Storage Intelligent Manufacturing Base was officially inaugurated in Suzhou High-Tech Zone. The opening of the new base is also an important step in extending the “LONGi ONE” strategy to manufacturing, providing solid support for PV-storage system integration and global business development.
The base – which handles the manufacturing, testing, quality inspection, and delivery of utility-scale, commercial and industrial (C&I), and microgrid products – will serve both domestic and international markets.
The utility-scale storage integration line at LONGi’s new base is planned to achieve 31 GWh/year of integrated manufacturing capacity in October 2026 and further expand to 50 GWh/year in the first half of 2027. The C&I energy storage line is planned to reach an annual production scale of more than 10,000 units by the end of October 2026. In addition, the base has set up an off-grid/microgrid energy storage production line to further meet product demand across different markets and application scenarios.
Digitalization and intelligence are important directions for upgrading the base’s manufacturing capabilities. On digital operations, the base will complete the full upgrade and deployment of its MES system between September and November 2026. It will build a lightweight manufacturing operations management (MOM) platform empowered by MES, BI, and AI, and integrate core business systems including ERP, WMS, and RCS. The platform supports automatic production plan release, full chain material traceability, real time equipment efficiency monitoring, and visualized lean KPIs covering Quality, Cost, Delivery, Safety, and Morale (QCDSM).
Through intelligent AGV scheduling, digital warehousing, and iTPM predictive equipment maintenance, the base improves material distribution and equipment management efficiency. Digital closed-loop quality management will shorten the time needed to close quality issues by more than 50%.
LONGi’s new base will focus on advancing three major AI application scenarios. First is use of Electronic Standard Operating Procedures (ESOP) to boost work instruction execution accuracy over 99% and reduce the training period for new employees by 50%. Second is use of AI-powered full inspections to replace manual sampling, increasing inspection efficiency and keeping the defect escape rate below 0.1%. Third is by incorporating an enterprise-level “Fault Brain” AI knowledge base that can help reduce fault-related downtime losses by 75%. In addition, the base plans to introduce applications such as AR glasses for on-site work guidance and AI-powered quality early warning systems.
Advanced manufacturing capability is reflected not only in capacity scale and technology application, but also in continuous optimization and stable operation of production processes. In lean management, the base fully implements a company-wide continuous improvement (Kaizen) mechanism. It continuously optimizes production line process layout, production takt time, and 5S visual management in the plant, driving manufacturing cost improvement and enhancing operational efficiency and cost competitiveness.
At the same time, digital management will further strengthen the visualization and traceability of the production process, while intelligent technologies support quality control, equipment maintenance, and manufacturing decision-making, continuously upgrading manufacturing management from experience-driven to data-driven.
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The Gaylord National Resort and Convention Center is celebrating a major sustainability milestone, representatives say, as the Maryland-based hotel fully energized its rooftop solar installation Oct. 21.
The rooftop solar project spans about 3.5 acres across the roof of the resort’s convention center. Officials say the project features 4,696 solar panels, and will generate nearly 3.4 GWh of renewable energy every year. Not only will the solar array aid the hotel’s energy strategy with bill savings, but it further represents a “significant investment” in the complex’s sustainability strategy.
“This project is an important example of how we are partnering with Marriott International to invest in initiatives that support our shared conservation goals and create long-term value for our shareholders,” says Mark Fioravanti, president and CEO of Ryman Hospitality Properties, the owner of Gaylord National.
“With this project complete, we’re reducing demand on the local power grid while improving operational efficiency and strengthening the resort’s climate resiliency for years to come.”
Gaylord National representatives expect the project to supply up to 20% of the resort’s entire electrical load during peak production periods. Additionally, the solar array will offset up to 50% of the electricity purchased from the local utility company.

Part of the wider solution

The solar project will operate as an arm of Marriott International, according to officials, and is yet another investment by Ryman Hospitality. The PV array will combine with the Gaylord National’s existing combined heat and power system and building efficiency technologies, further boosting the Marriott International sustainability goals.
“The addition of solar power strengthens the foundation we have established through our Cogen system and other efficiency investments,” says Derek Brauner, director of engineering at Gaylord National Resort and Convention Center. “By generating electricity on-site, capturing thermal energy that would otherwise be wasted and continuously monitoring our building systems, we are able to operate more efficiently.
“The solar array is another important component of a broader resort-wide strategy focused on energy efficiency, resource conservation and long-term sustainability.”
First partially activated in June 2026, the project has generated about 495 MWh of renewable electricity in about four months. This is equivalent to powering about 48 average American households for one year, and avoids about 333 metric tons of carbon emissions.
The resort has also partnered with the Food Recovery Network to donate surplus prepared food, furthering sustainability for the resort. The resort staff has contributed of more than 115,000 pounds of donated food to date, helping provide about 30,000 meals to hunger fighting organizations every year.
“Gaylord National’s solar project demonstrates how large hospitality properties can integrate renewable energy while maintaining seamless operations,” says Jeff Bedard, founder and CEO of Rev Energy Ventures. “The project’s scale highlights the role on-site renewable energy can play in supporting both operational efficiency and sustainability goals.”

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Navitas Solar plans to establish 3.6 GW of solar cell manufacturing capacity, with the first 2.4 GW phase scheduled to become operational in the third quarter of FY 2028. The company has secured growth capital of up to $20 million from Swiss impact asset manager responsAbility to support the first 2.4 GW phase of the total planned cell capacity.
Navitas currently has 3 GW of installed solar module manufacturing capacity. The planned cell manufacturing facility is expected to strengthen its backward integration and expand its presence across the solar manufacturing value chain.
The investment is part of responsAbility’s Asia Climate Fund, which targets scalable private-sector solutions that deliver measurable CO₂ emissions reductions and positive societal impact in high-growth markets.
As part of its next growth phase, Navitas has also partnered with Caelux to develop perovskite-TOPCon hybrid tandem solar modules. Under the agreement, Navitas will integrate Caelux’s perovskite-coated front glass with its n-type TOPCon module technology to manufacture hybrid tandem modules targeting efficiencies of up to 28%, compared with around 25% for conventional TOPCon modules.
Navitas Solar’s agreement targets 5 GW of hybrid tandem module manufacturing, with commercial production expected to begin in 2028. Founded in 2013 and headquartered in Surat, Gujarat, Navitas Solar manufactures mono PERC and n-type TOPCon modules with power ratings of up to 720 W.
The company has expanded its operations across solar module manufacturing, encapsulant production, engineering, procurement and construction (EPC) services, battery energy storage systems (BESS), and renewable power generation. Its planned entry into solar cell manufacturing is expected to deepen its integration across the solar value chain. Navitas also plans to expand further upstream into wafer and ingot manufacturing.
Vineet Mittal, Director at Navitas, said the company’s backward integration into solar cells will strengthen domestic supply chains and can create greater value addition within India. “Our work in high-efficiency TOPCon technology and our partnership with Caelux on Perovskite-TOPCon Hybrid Tandem modules reflect our ambition to build advanced technologies that can compete globally. We see this partnership with responsAbility as an important step towards realizing that ambition responsibly and sustainably,” said Mittal.
“As Navitas scales, we want to build an organisation that is not measured only by capacity, revenue or profitability, but also by how responsibly and sustainably that growth is achieved. Strong governance, environmental stewardship, responsible employment practices and a positive contribution to the communities and ecosystem around us will remain integral to building Navitas as a long-term institution,” said Vijay Menon, COO, Navitas Solar. “Securing funding from responsAbility is a validation of the hard work done so far and demonstrates our commitment to continued excellence and improvement.”
Kartik Jain, head of finance at Navitas Solar, said the funding would help strengthen the company’s financial position and support its expansion plans.
“This partnership reflects the confidence of a leading climate-focused investor in our business fundamentals, our execution capabilities, financial strategy, and the long-term growth potential of India’s solar manufacturing ecosystem,” he added.
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According to the latest IndexBox report on the global Semiconductors Solar Photovoltaic Power Systems market, the market enters 2026 with broader demand fundamentals, more disciplined procurement behavior, and a more regionally diversified supply architecture.
The global market for Semiconductors Solar Photovoltaic Power Systems is undergoing a structural transformation as solar PV matures from a subsidized niche technology into a mainstream, grid-integrated generation asset. This report provides a comprehensive analysis of complete, grid-connected solar PV power systems that convert sunlight into electricity using semiconductor-based photovoltaic modules, including all balance-of-system components required for safe, reliable, and grid-compliant operation.
The market is defined by the convergence of semiconductor technology, power electronics, and renewable energy deployment, with value increasingly concentrated in system-level integration, bankability, and grid-interactive capabilities. Historical analysis from 2012 to 2025 reveals a market shaped by rapid cost declines, policy shifts, and supply chain disruptions, while the forecast period 2026-2035 points to a new phase of growth driven by decarbonization mandates, corporate procurement, and the need for resilient, grid-supportive power systems.
Key trends include the adoption of high-efficiency cell architectures such as TOPCon and HJT, the rise of bifacial modules with single-axis tracking, and the critical role of inverters as grid-interactive assets providing voltage support and frequency regulation. Supply chain resilience, soft costs, and interconnection bottlenecks emerge as decisive factors for project economics and competitive positioning.
The baseline scenario for the Semiconductors Solar Photovoltaic Power Systems market forecasts robust expansion through 2035, with global capacity additions accelerating as solar becomes the lowest-cost source of new electricity generation in most regions. The market is expected to grow at a compound annual growth rate of 8.2% from 2026 to 2035, reaching a market index of 220 (2025=100). This growth is underpinned by utility-scale deployment driven by renewable portfolio standards, corporate power purchase agreements, and national decarbonization targets, particularly in Asia-Pacific and North America.
The commercial and industrial segment gains momentum as corporate buyers demand granular energy data and integrated storage solutions. Technological upgrades, including the shift to n-type TOPCon and HJT cells, bifacial modules, and smart inverters with advanced grid-support functions, are expected to raise system performance and lower levelized cost of electricity. However, the outlook is tempered by grid interconnection delays, permitting bottlenecks, and supply chain constraints for critical components such as IGBTs and high-purity quartz.
The baseline assumes no major policy reversals and a gradual easing of supply chain pressures, with soft costs remaining a significant portion of total system cost. Competition intensifies among integrated system providers and inverter manufacturers, with value migrating to players who can de-risk projects through bankability, warranty support, and grid-compliance expertise.
The utility-scale segment dominates the market for Semiconductors Solar Photovoltaic Power Systems, accounting for the majority of global capacity additions. This segment involves large ground-mounted PV plants, typically above 10 MW, that sell electricity to utilities or corporate buyers under long-term power purchase agreements. Demand is driven by the economic competitiveness of solar PV, which has become the lowest-cost new generation source in many regions, and by renewable portfolio standards and decarbonization targets. Through 2035, the segment will see a shift toward higher-efficiency modules, bifacial technology, and single-axis trackers to maximize energy yield and reduce levelized cost of electricity.
Grid-interactive inverters with advanced capabilities such as reactive power support and frequency regulation are becoming essential to meet grid codes and ensure project bankability. The demand-side indicators to watch include PPA prices, interconnection queue volumes, and auction results. Major developers and utilities are increasingly procuring integrated systems rather than individual components to de-risk projects and ensure performance guarantees. Current trend: Growing rapidly, driven by large-scale tenders and corporate PPAs.
Major trends: Adoption of bifacial modules with single-axis tracking as the de facto standard for utility-scale projects, Shift to n-type TOPCon and HJT cell architectures for higher efficiency, Integration of battery storage to provide dispatchable solar and grid services, and Rising importance of grid-forming inverters for weak grid support.
Representative participants: NextEra Energy, Iberdrola, Enel Green Power, First Solar, JinkoSolar, and LONGi Solar.
The commercial and industrial segment is being reshaped by corporate decarbonization commitments such as RE100 and net-zero targets, which are driving businesses to procure renewable energy directly. C&I solar systems, typically ranging from 100 kW to 10 MW, are installed on rooftops, carports, and ground mounts at manufacturing facilities, warehouses, and retail sites. Buyers are increasingly sophisticated, demanding granular energy data, guaranteed performance, and solutions that integrate with future behind-the-meter storage. This has created a channel for specialized system integrators and energy-as-a-service providers who offer financing and maintenance.
Through 2035, the segment will benefit from falling battery costs, enabling solar-plus-storage solutions that enhance resilience and reduce demand charges. Demand-side indicators include corporate sustainability disclosures, electricity tariff structures, and the availability of third-party financing. The segment is also seeing a trend toward larger, multi-site corporate PPAs that aggregate demand and improve negotiating power. Current trend: Accelerating due to corporate decarbonization mandates and energy-as-a-service models.
Major trends: Growth of energy-as-a-service and solar leasing models, Integration of behind-the-meter storage for resilience and demand charge management, Demand for granular energy data and digital monitoring platforms, and Corporate PPAs and virtual PPAs enabling off-site procurement.
Representative participants: Sunrun, SunPower, Tesla Energy, Schneider Electric, Engie, and EDF Renewables.
The residential segment comprises rooftop solar PV systems installed on single-family and multi-family homes, typically ranging from 3 kW to 20 kW. Demand is driven by rising electricity prices, government incentives, and consumer interest in energy independence and sustainability. Through 2035, the segment will increasingly feature integrated solar-plus-storage systems that provide backup power and allow homeowners to participate in demand response programs. The adoption of high-efficiency modules and microinverters or DC optimizers will continue to improve system performance and safety. Demand-side indicators include residential electricity rates, solar financing availability, and net metering policies.
The segment is also seeing a trend toward smart home integration, where solar systems are managed alongside other devices to optimize energy consumption. However, growth may be tempered in some markets by policy changes and utility rate reforms that reduce the value of exported solar electricity. Current trend: Steady growth, supported by rooftop solar adoption and storage integration.
Major trends: Rising adoption of solar-plus-storage for backup and self-consumption, Growth of solar leasing and power purchase agreements to lower upfront costs, Integration with smart home energy management systems, and Policy shifts toward self-consumption and time-of-use rates.
Representative participants: Sunrun, Tesla Energy, Enphase Energy, SolarEdge Technologies, SunPower, and Vivint Solar.
The off-grid and remote power segment includes stand-alone solar PV systems, often with battery storage, used in areas without access to reliable grid electricity. Applications include rural electrification, telecommunications towers, mining operations, and remote monitoring stations. Demand is driven by the need to provide electricity in developing regions, particularly in Sub-Saharan Africa and parts of Asia-Pacific, where grid extension is costly or impractical. Through 2035, the segment will benefit from falling costs of solar modules and batteries, as well as innovative business models such as pay-as-you-go solar. Demand-side indicators include rural electrification rates, mobile phone penetration, and donor funding for energy access.
The segment also includes hybrid systems that combine solar with diesel generators to reduce fuel consumption and emissions. Technological trends include the use of high-efficiency modules and lithium-ion batteries for longer life and lower maintenance. Current trend: Niche but growing, driven by electrification needs in developing regions.
Major trends: Growth of pay-as-you-go solar business models, Hybridization with diesel generators to reduce fuel costs, Use of lithium-ion batteries for improved reliability, and Increasing focus on productive use applications such as irrigation and cold storage.
Representative participants: d.light, Sun King, BBOXX, Zola Electric, SMA Solar Technology, and Victron Energy.
The other segment includes building-integrated photovoltaics (BIPV), floating solar, vehicle-integrated PV, and other specialty applications. These segments are currently small but are expected to grow as technology matures and costs decline. BIPV integrates solar cells into building materials such as facades, windows, and roofing, offering dual functionality and aesthetic benefits. Floating solar involves mounting PV systems on water bodies, which can reduce land use and improve panel efficiency through cooling. Through 2035, these applications will benefit from urbanization, land constraints, and the need for distributed generation.
Demand-side indicators include construction activity, urban land prices, and policy support for innovative solar applications. The segment also includes solar-powered products such as streetlights and water pumps, which are important for off-grid applications. Technological trends include the development of flexible and lightweight modules, and improved aesthetics for BIPV. Current trend: Emerging applications with modest growth.
Major trends: Growth of floating solar on reservoirs and industrial ponds, Advancements in BIPV materials and aesthetics, Integration of solar into vehicles and infrastructure, and Use of solar for water pumping and agricultural applications.
Representative participants: Onyx Solar, SunPower, Ciel & Terre, SolarEdge Technologies, LONGi Solar, and Hanwha Q Cells.
Interactive table based on the Store Companies dataset for this report.
Asia-Pacific leads the market, driven by China’s massive utility-scale deployment and manufacturing base, plus strong growth in India and Southeast Asia. Supportive policies and falling costs sustain demand, though grid integration challenges emerge. Direction: Dominant and growing.
North America benefits from federal incentives like the Inflation Reduction Act and corporate PPAs. Utility-scale projects dominate, but interconnection queues and trade policies pose risks. The U.S. remains the largest national market. Direction: Growing steadily.
Europe’s market is driven by decarbonization targets and high electricity prices, with strong rooftop and C&I segments. Policy uncertainty and grid congestion are challenges, but the EU’s REPowerEU plan supports long-term growth. Direction: Moderate growth.
Latin America shows promising growth, particularly in Brazil, Chile, and Mexico, driven by auctions and corporate procurement. Economic volatility and policy changes remain risks, but solar competitiveness is strong. Direction: Emerging growth.
The Middle East & Africa region is accelerating from a small base, with large-scale projects in the UAE, Saudi Arabia, and South Africa. Off-grid solar is vital for energy access, but financing and regulatory hurdles persist. Direction: Nascent but accelerating.
In the baseline scenario, IndexBox estimates a 8.2% compound annual growth rate for the global semiconductors solar photovoltaic power systems market over 2026-2035, bringing the market index to roughly 220 by 2035 (2025=100).
Note: indexed curves are used to compare medium-term scenario trajectories when full absolute volumes are not publicly disclosed.
For full methodological details and benchmark tables, see the latest IndexBox Semiconductors Solar Photovoltaic Power Systems market report.
This report is an independent strategic market study that provides a structured, commercially grounded analysis of the global market for Semiconductors Solar Photovoltaic Power Systems. It is designed for battery and storage manufacturers, power-electronics suppliers, system integrators, EPC partners, developers, utilities, investors, and strategic entrants that need a clear view of deployment demand, technology positioning, manufacturing exposure, safety and qualification burden, project economics, and competitive structure.
The analytical framework is designed to work both for a single specialized storage or conversion component and for a broader renewable energy power system, where market structure is shaped by chemistry, duration, project economics, system integration, safety requirements, route-to-market, and grid-interface logic rather than by one narrow customs heading alone. It defines Semiconductors Solar Photovoltaic Power Systems as Complete, grid-connected power generation systems that convert sunlight into electricity using semiconductor-based photovoltaic modules, including all balance-of-system components for safe, reliable, and grid-compliant operation and examines the market through deployment use cases, buyer environments, upstream input dependencies, conversion and integration stages, qualification and safety requirements, pricing architecture, commercial channels, and country capability differences. Historical analysis typically covers 2012 to 2025, with forward-looking scenarios through 2035.
This report is designed to answer the questions that matter most to decision-makers evaluating an energy-storage, battery, renewable-integration, or power-conversion market.
At its core, this report explains how the market for Semiconductors Solar Photovoltaic Power Systems actually functions. It identifies where demand originates, how supply is organized, which technological and regulatory barriers influence adoption, and how value is distributed across the value chain. Rather than describing the market only in broad terms, the study breaks it into analytically meaningful layers: product scope, segmentation, end uses, customer types, production economics, outsourcing structure, country roles, and company archetypes.
The report is particularly useful in markets where buyers are highly specialized, suppliers differ significantly in technical depth and regulatory readiness, and the commercial landscape cannot be understood only through top-line market size figures. In this context, the study is designed not only to estimate the size of the market, but to explain why the market has that size, what drives its growth, which subsegments are the most attractive, and what it takes to compete successfully within it.
The report is based on an independent analytical methodology that combines deep secondary research, structured evidence review, market reconstruction, and multi-level triangulation. The methodology is designed to support products for which there is no single clean official dataset capturing the full market in a directly usable form.
The study typically uses the following evidence hierarchy:
The analytical framework is built around several linked layers.
First, a scope model defines what is included in the market and what is excluded, ensuring that adjacent products, downstream finished goods, unrelated instruments, or broader chemical categories do not distort the market boundary.
Second, a demand model reconstructs the market from the perspective of consuming sectors, workflow stages, and applications. Depending on the product, this may include Bulk energy generation for grid supply, On-site generation for industrial load, Commercial building electricity offset, Renewable energy credit (REC) generation, and Grid congestion relief and capacity deferral across Electric Utilities & IPPs, Manufacturing & Heavy Industry, Retail & Commercial Real Estate, Data Centers, and Agriculture & Water Treatment and Site Assessment & Feasibility, System Design & Yield Modeling, Permitting & Grid Interconnection Approval, Procurement & Logistics, Construction & Commissioning, and O&M & Performance Management. Demand is then allocated across end users, development stages, and geographic markets.
Third, a supply model evaluates how the market is served. This includes Polysilicon, Solar glass & backsheets, Aluminum for frames and racks, Copper for cabling, Semiconductors (IGBTs, SiC) for inverters, and Encapsulants (EVA, POE), manufacturing technologies such as High-efficiency PERC, TOPCon, HJT cells, Bifacial modules with tracking, 1500V DC system architecture, String inverters vs. central inverters, DC optimizers and module-level power electronics, and PV simulation and asset management software, quality control requirements, outsourcing, contract manufacturing, integration, and project-delivery participation, distribution structure, and supply-chain concentration risks.
Fourth, a country capability model maps where the market is consumed, where production is materially feasible, where manufacturing capability is limited or emerging, and which countries function primarily as innovation hubs, supply nodes, demand centers, or import-reliant markets.
Fifth, a pricing and economics layer evaluates price corridors, cost drivers, complexity premiums, outsourcing logic, margin structure, and switching barriers. This is especially relevant in markets where product grade, purity, customization, regulatory burden, or service model materially influence economics.
Finally, a competitive intelligence layer profiles the leading company types active in the market and explains how strategic roles differ across upstream material suppliers, component and controls providers, OEMs, storage-system integrators, EPC partners, project developers, and distribution or service channels.
This report covers the market for Semiconductors Solar Photovoltaic Power Systems in its commercially relevant and technologically meaningful form. The scope typically includes the product itself, its major product configurations or variants, the critical technologies used to produce or deliver it, the core input categories required for manufacturing, and the services directly associated with its commercial supply, quality control, or integration into end-user workflows.
Included within scope are the product forms, use cases, inputs, and services that are necessary to understand the actual addressable market around Semiconductors Solar Photovoltaic Power Systems. This usually includes:
Excluded from scope are categories that may be technologically adjacent but do not belong to the core economic market being measured. These usually include:
The exact inclusion and exclusion logic is always a critical part of the study, because the quality of the market estimate depends directly on disciplined scope boundaries.
The report provides global coverage. It evaluates the world market as a whole and then breaks it down by region and country, with particular focus on the geographies that matter most for deployment demand, battery-material processing, cell and component manufacturing, power-conversion capability, renewable integration, and project delivery.
The geographic analysis is designed not simply to rank countries by nominal market size, but to classify them by role in the market. Depending on the product, countries may function as:
This study is designed for strategic, commercial, operations, project-delivery, and investment users, including:
In many energy-transition, storage, power-conversion, and project-driven markets, official trade and production statistics are not sufficient on their own to describe the true market. Product boundaries may cut across multiple tariff codes, several product categories may be bundled into the same official classification, and a meaningful share of activity may take place through customized services, captive supply, platform relationships, or technically specialized channels that are not directly visible in standard statistical datasets.
For this reason, the report is designed as a modeled strategic market study. It uses official and public evidence wherever it is reliable and scope-compatible, but it does not force the market into a purely statistical framework when doing so would reduce analytical quality. Instead, it reconstructs the market through the logic of demand, supply, technology, country roles, and company behavior.
This makes the report particularly well suited to products that are innovation-intensive, technically differentiated, capacity-constrained, platform-dependent, or commercially structured around specialized buyer-supplier relationships rather than standardized commodity trade.
The report typically includes:
The result is a structured, publication-grade market intelligence document that combines quantitative modeling with commercial, technical, and strategic interpretation.
Energy-Storage Market Structure and Company Archetypes
The Key National Markets and Their Strategic Roles
Vertically integrated, major R&D in monocrystalline
Strong in PERC and n-type cell technology
Vertically integrated, strong in utility-scale projects
High-efficiency N-type TOPCon leader
Strong downstream project pipeline globally
Dominant in utility-scale thin-film, US-centric
Strong US & European presence, integrated supply chain
Strong in heterojunction (HJT) technology
Key upstream material & cell supplier
Key upstream material producer
High-purity polysilicon for solar & electronics
Maxeon manufactures IBC cells, SunPower sells in US
Owned by Reliance, known for heterojunction panels
Key player in residential & commercial systems
Strong in utility-scale and commercial inverters
Major in utility-scale string inverters, strong in China
Dominant in US residential solar+storage systems
Key upstream material supplier with low-cost production
Critical supplier of solar panel glass
Key supplier of photovoltaic glass
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Kendall Sustainable Infrastructure brings 16MW of community solar online in New York and Oregon  PV Tech
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“If I did not have the recording I would have been screwed.”
Photo Credit: iStock
What started as a return appointment to address a solar system issue ended in a dispute over roof and gutter damage, according to a Tesla customer who says the company only dropped a site visit fee after seeing video of its own technician discussing the problem.
In a post on Reddit’s r/TeslaSolar, the homeowner said Tesla ultimately apologized, waived the site visit charge, and offered reimbursement for gutter repair — prompting the remark, “If I did not have the recording I would have been screwed.”
The homeowner said the dispute followed a denied permission to operate and a failed city inspection after the solar panels and Powerwall home battery were installed. 
During a later Tesla visit meant to adjust the setup, the crew allegedly damaged the roof and gutter. The homeowner said workers then spent about two hours patching the roof and clearing clogged gutters, only for Tesla to later email that it found no damage and would charge a site visit fee.
After the owner shared a video showing a technician acknowledging the damage on-site, Tesla changed its response. 
Elsewhere in the thread, the homeowner explained what triggered the rejection: “The conduit wasn’t up to code and the system was too large to qualify for the energy program. Both were quick fixes.”
Even with stories like this, going solar remains one of the best ways to save money on home energy, and EasyHome can help you compare pricing and estimated savings from vetted installers in your area.
The OP said part of the reason they picked Tesla was confidence in the company’s staying power and convenience, saying that Tesla’s warehouse was “less than 10 miles” from their home. They also made clear that the equipment performed well, with the main frustration centered on customer service.
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.
Replies varied based on regional differences. 
A commenter from California said Tesla had been “super conservative” on code margins during that install and added that the battery portion of the bid was “$10,000 cheaper than everyone else.” Customer experiences can vary significantly by region, even when buyers choose the same brand for similar reasons.
Some commenters suggested installation and service arrangements might help to explain the gap in experiences. When there is a failed inspection or the need for a rework visit, it can cause delays, add stress, and spark disputes over who pays when something goes wrong on the roof.
The OP said, “I saved all text and emails,” and one commenter advised, “Record all interactions going forward.”
Another commenter warned, “Make sure to settle this before you pay,” while the OP said, “My contract requires arbitration if I ever want to sue.” In disputes involving inspection fixes, repair damage, and reimbursement, those contract terms can shape what options a homeowner actually has.
For those still shopping, EasyHome‘s free explorer tool can be especially useful for comparing vetted installers, pricing, and projected savings before signing. It can also help homeowners explore backup battery storage options. Pairing solar with a battery can maximize savings and keep a home powered by solar when the grid goes down.
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They added that a planned garage might skip the grid entirely.
Photo Credit: iStock
Near Joshua Tree in Southern California, recurring blackouts are pushing a homeowner with an existing solar setup to consider battery storage as it becomes clear that panels alone do not solve outage problems.
The household has relied on a solar carport for years in the Mojave Desert and, after repeated outages, is looking into a DIY backup setup that can grow over time.
On Reddit, the homeowner described a phased plan of installing batteries themselves “to keep the costs down, use them for backup first, and later moving toward getting off utility Southern California Edison. They added that a planned garage might skip the grid entirely.
Because the home already has solar, the desert outages highlight a limit commenters quickly emphasized. 
“Without batteries an array does nothing in an outage,” a Reddit user explained. “I recommend looking up will prowse on the tubes & study up on ohm’s law.”
To that end, the original poster said the goal is “looking for just backup at the moment,” while choosing equipment that is “good with adding panels later” instead of jumping straight into a full off-grid system.
Going solar is one of the best ways to save money on home energy, especially in a region with abundant sunshine like the high desert near Joshua Tree. Readers who want to compare costs can use EasyHome’s free explorer tool to see pricing and savings from vetted installers in their area.
This is not a homeowner starting from scratch or chasing an idealized off-grid lifestyle. It is a household that has already lived with solar for years and is now trying to solve a specific reliability problem tied to recurring outages.
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.
Buying a battery to keep essential appliances running during outages is a very different calculation from building a fully independent property. In this case, the circumstances are especially concrete with a desert home, an existing solar carport, and a future garage project that may use panels and batteries.
Discussion in the thread centered on backup storage as the starting point, not a ground-up redesign. That approach fits the homeowner’s aim of adding batteries first, keeping the install straightforward, and leaving room for more panels later.
“One consideration is the heat,” a Redditor advised. “You’ll want them in an air conditioned space for longevity and safety. Perhaps insulate the garage really well and include a minisplit.”
EasyHome’s free explorer tool can also help readers explore backup battery storage options alongside solar pricing. Through EasyHome, homeowners can compare vetted installer offerings and see how pairing solar with a battery lets them maximize savings and keep the lights on when the grid goes down.
That kind of side-by-side planning matters for homes near Joshua Tree, where frequent outages can drive solar decisions. Other commenters recommended inverters and batteries that wouldn’t break the bank if the OP wanted to do it as a DIY project.
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.
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According to the latest IndexBox report on the global Off Grid Solar Pv Panels market, the market enters 2026 with broader demand fundamentals, more disciplined procurement behavior, and a more regionally diversified supply architecture.
The global market for off-grid solar photovoltaic (PV) panels is undergoing a significant transformation, evolving from a niche solution for basic energy access into a sophisticated, multi-tiered ecosystem essential for energy resilience, industrial operations, and grid-edge infrastructure. According to IndexBox analysis, the market is projected to grow at a compound annual growth rate (CAGR) of 8.2% from 2026 to 2035, reaching a market index of 220 (2025=100).
This growth is underpinned by two distinct demand streams: high-volume, cost-sensitive deployments for residential and community electrification in emerging economies, and high-reliability, performance-critical systems for commercial, industrial, and critical infrastructure in developed and developing markets. The competitive landscape is shifting from a focus on panel efficiency alone to the integrated performance, safety, and bankability of complete energy systems, placing power conversion, battery management, and system controls at the center of product differentiation.
Supply chain resilience, particularly for semiconductors and critical minerals, remains a key concern, while regulatory evolution around safety and end-of-life management is shaping market entry barriers. This report provides a comprehensive analysis of the market size, segmentation, demand drivers, competitive structure, and regional outlook through 2035.
The baseline scenario for the off-grid solar PV panels market anticipates robust growth over the forecast period 2026-2035, with a CAGR of 8.2%, culminating in a market index of 220 by 2035 (2025=100). This outlook is supported by the accelerating need for reliable electricity in areas with weak or absent grid infrastructure, coupled with declining system costs and improving performance.
The market is bifurcating: on one hand, basic electrification demand in Sub-Saharan Africa and South Asia continues to drive volume for small, low-cost panels; on the other, demand for higher-capacity, hybrid-ready systems is rising in North America, Europe, and parts of Asia-Pacific for residential backup, commercial resilience, and remote industrial applications. Technological advancements, particularly in monocrystalline PERC and emerging tandem cells, are enhancing efficiency and reducing footprint, while integrated battery storage and smart controls are becoming standard in higher-value segments.
The supply chain is expected to diversify geographically, with manufacturing clusters emerging in Southeast Asia and India, reducing reliance on China. However, policy uncertainty, financing constraints in emerging markets, and competition from grid extension and alternative technologies pose risks. Overall, the market is poised for sustained expansion, driven by the confluence of energy access goals, resilience needs, and decarbonization imperatives.
The residential/household sector is the largest end-use segment for off-grid solar PV panels, accounting for approximately 45% of global demand in 2025. This segment is driven by the need for basic lighting, phone charging, and small appliance power in areas without grid access, as well as by homeowners in grid-connected areas seeking backup power and energy independence. In emerging economies, particularly in Sub-Saharan Africa and South Asia, off-grid solar systems are often the most cost-effective way to provide electricity access, supported by pay-as-you-go business models and mobile money payments.
In developed markets, residential demand is increasingly driven by resilience concerns and the desire to reduce electricity bills, with hybrid systems that integrate solar, battery storage, and grid connection gaining popularity. Through 2035, the residential segment is expected to grow at a CAGR of 7.5%, with demand shifting toward higher-capacity systems (above 1 kW) as appliance ownership increases and battery costs decline. Key demand indicators include household electrification rates, disposable income levels, and the frequency of grid outages.
The segment is highly fragmented, with numerous local installers and distributors, but major panel manufacturers such as JinkoSolar, LONGi, and Canadian Solar supply a significant share of modules. Current trend: Growing demand for basic electrification and backup power.
Major trends: Shift toward larger system sizes as appliance penetration increases, Growth of pay-as-you-go and lease-to-own financing models, Integration of battery storage and smart controls for energy management, and Increasing adoption of hybrid systems in developed markets for backup power.
Representative participants: JinkoSolar, LONGi Solar, Canadian Solar, Trina Solar, d.light, and Greenlight Planet.
The commercial and industrial (C&I) sector represents about 25% of off-grid solar PV panel demand, driven by the need for reliable power in remote industrial sites, mining operations, agricultural facilities, and commercial establishments. Off-grid solar systems are increasingly used to reduce diesel consumption, lower energy costs, and enhance operational resilience in areas with unreliable grid connections. In the mining sector, for example, solar-plus-storage systems are being deployed to power remote camps and equipment, reducing fuel logistics costs and carbon emissions. In agriculture, off-grid solar is used for irrigation pumping, cold storage, and processing, improving productivity and reducing post-harvest losses.
The C&I segment is expected to grow at a CAGR of 9.0% through 2035, driven by declining battery costs, increasing corporate sustainability targets, and the need for energy security. Demand indicators include diesel prices, grid reliability, and corporate ESG commitments. Major companies involved in this segment include system integrators and EPC firms, as well as panel manufacturers such as First Solar, SunPower, and Hanwha Q Cells, which supply high-efficiency modules for space-constrained installations. Current trend: Rising adoption for remote operations and resilience.
Major trends: Increasing use of solar-plus-storage for diesel displacement in mining and agriculture, Growth of energy-as-a-service and leasing models for C&I customers, Adoption of high-efficiency modules to reduce footprint and installation costs, and Integration of remote monitoring and predictive maintenance capabilities.
Representative participants: First Solar, SunPower, Hanwha Q Cells, SMA Solar Technology, Tesla, and Aggreko.
The community and institutional sector, accounting for around 15% of off-grid solar PV panel demand, includes schools, health clinics, community centers, and water pumping systems in off-grid areas. This segment is largely driven by government programs, international development aid, and public-private partnerships aimed at achieving universal energy access and improving public services. For instance, solar PV systems are used to power health clinics for vaccine refrigeration and lighting, and schools for computer labs and evening classes. Community water pumping systems powered by solar are also increasingly common, providing clean water for drinking and irrigation.
The segment is expected to grow at a CAGR of 8.0% through 2035, supported by international commitments such as Sustainable Development Goal 7 and declining system costs. Demand is heavily influenced by donor funding, government budgets, and procurement policies. Major companies supplying this segment include panel manufacturers like Trina Solar and JA Solar, as well as specialized system integrators and NGOs that implement projects. Current trend: Expanding through public-private partnerships and development programs.
Major trends: Increasing use of solar for community water pumping and purification, Growth of solar-powered health facilities and schools in remote areas, Adoption of results-based financing and pay-for-performance models, and Integration of solar with community microgrids for broader energy access.
Representative participants: Trina Solar, JA Solar, Risen Energy, Schneider Electric, Siemens, and Practical Action.
The telecommunications sector accounts for approximately 10% of off-grid solar PV panel demand, primarily for powering remote cell towers and network infrastructure. Telecom operators are increasingly deploying off-grid solar systems to reduce reliance on diesel generators, lower operating costs, and extend network coverage to rural and remote areas. Solar PV panels, often coupled with battery storage, provide reliable power for base transceiver stations (BTS) in areas with no grid connection or unreliable grid supply. The segment is expected to grow at a CAGR of 7.0% through 2035, driven by the expansion of mobile networks in developing countries, the rollout of 5G in remote areas, and the need to reduce carbon emissions.
Demand indicators include mobile penetration rates, network coverage targets, and diesel prices. Major companies involved include telecom tower companies such as IHS Towers and American Tower, which procure solar systems from panel manufacturers like LONGi and Canadian Solar, as well as system integrators specializing in telecom power solutions. Current trend: Steady growth driven by network expansion in remote areas.
Major trends: Shift from diesel to solar hybrid systems for remote cell towers, Growing demand for reliable power for 5G and edge computing infrastructure, Adoption of energy management systems for remote monitoring and control, and Increasing use of solar to power small cells and off-grid network equipment.
Representative participants: LONGi Solar, Canadian Solar, IHS Towers, American Tower, Huawei, and ZTE.
The ‘Others’ segment, comprising about 5% of off-grid solar PV panel demand, includes specialized applications such as military operations, marine vessels, off-grid mobility (e.g., RVs, boats), and remote monitoring stations. These applications require ruggedized, high-reliability solar panels that can withstand harsh environments and provide power for critical equipment. Military applications include portable solar chargers for soldiers and solar-powered surveillance systems, while marine applications include solar panels for boats and offshore platforms. Off-grid mobility is a growing niche, with solar panels used to charge batteries in recreational vehicles and expedition vehicles.
The segment is expected to grow at a CAGR of 6.5% through 2035, driven by technological advancements in lightweight and flexible solar panels, and increasing demand for energy independence in remote and mobile applications. Demand is influenced by defense budgets, outdoor recreation trends, and marine industry growth. Major companies include SunPower (for high-efficiency flexible panels), First Solar (for ruggedized modules), and specialized suppliers like GoPower and Renogy. Current trend: Niche applications with specialized requirements.
Major trends: Development of lightweight and flexible solar panels for mobile applications, Increasing use of solar in military portable power and surveillance systems, Growth of solar-powered marine and RV applications, and Adoption of solar for remote monitoring and IoT devices.
Representative participants: SunPower, First Solar, Renogy, GoPower, Goal Zero, and Brunton.
Interactive table based on the Store Companies dataset for this report.
Asia-Pacific dominates the off-grid solar PV panels market, driven by large unelectrified populations in South Asia and Southeast Asia, supportive government policies, and a strong manufacturing base in China. India and Indonesia are key growth markets, with increasing demand for residential and agricultural off-grid systems. Direction: Growing.
North America is a mature market with steady growth, driven by demand for backup power, remote industrial applications, and off-grid living. The U.S. and Canada have well-developed distribution channels and financing options, with increasing adoption of hybrid systems for resilience. Direction: Growing.
Europe shows moderate growth, with demand concentrated in off-grid residential and commercial applications, particularly in remote areas of Scandinavia, Eastern Europe, and the Mediterranean. Policy support for renewable energy and resilience is driving adoption, but grid reliability is generally high, limiting the addressable market. Direction: Stable.
Latin America is an emerging market with significant potential, driven by rural electrification needs in Brazil, Mexico, and Andean countries, as well as commercial and industrial demand in mining and agriculture. Financing challenges and policy instability are key barriers, but declining costs are improving viability. Direction: Growing.
The Middle East & Africa region is the fastest-growing market for off-grid solar PV panels, driven by low electrification rates in Sub-Saharan Africa, abundant solar resources, and increasing investment in off-grid solutions. Pay-as-you-go business models and international development funding are accelerating adoption. Direction: Growing rapidly.
In the baseline scenario, IndexBox estimates a 8.2% compound annual growth rate for the global off grid solar pv panels market over 2026-2035, bringing the market index to roughly 220 by 2035 (2025=100).
Note: indexed curves are used to compare medium-term scenario trajectories when full absolute volumes are not publicly disclosed.
For full methodological details and benchmark tables, see the latest IndexBox Off Grid Solar Pv Panels market report.
This report is an independent strategic market study that provides a structured, commercially grounded analysis of the global market for Off Grid Solar Pv Panels. It is designed for battery and storage manufacturers, power-electronics suppliers, system integrators, EPC partners, developers, utilities, investors, and strategic entrants that need a clear view of deployment demand, technology positioning, manufacturing exposure, safety and qualification burden, project economics, and competitive structure.
The analytical framework is designed to work both for a single specialized storage or conversion component and for a broader renewable energy generation product category, where market structure is shaped by chemistry, duration, project economics, system integration, safety requirements, route-to-market, and grid-interface logic rather than by one narrow customs heading alone. It defines Off Grid Solar Pv Panels as Photovoltaic (PV) solar panels specifically designed and deployed for off-grid electricity generation, serving locations without connection to a centralized utility grid and examines the market through deployment use cases, buyer environments, upstream input dependencies, conversion and integration stages, qualification and safety requirements, pricing architecture, commercial channels, and country capability differences. Historical analysis typically covers 2012 to 2025, with forward-looking scenarios through 2035.
This report is designed to answer the questions that matter most to decision-makers evaluating an energy-storage, battery, renewable-integration, or power-conversion market.
At its core, this report explains how the market for Off Grid Solar Pv Panels actually functions. It identifies where demand originates, how supply is organized, which technological and regulatory barriers influence adoption, and how value is distributed across the value chain. Rather than describing the market only in broad terms, the study breaks it into analytically meaningful layers: product scope, segmentation, end uses, customer types, production economics, outsourcing structure, country roles, and company archetypes.
The report is particularly useful in markets where buyers are highly specialized, suppliers differ significantly in technical depth and regulatory readiness, and the commercial landscape cannot be understood only through top-line market size figures. In this context, the study is designed not only to estimate the size of the market, but to explain why the market has that size, what drives its growth, which subsegments are the most attractive, and what it takes to compete successfully within it.
The report is based on an independent analytical methodology that combines deep secondary research, structured evidence review, market reconstruction, and multi-level triangulation. The methodology is designed to support products for which there is no single clean official dataset capturing the full market in a directly usable form.
The study typically uses the following evidence hierarchy:
The analytical framework is built around several linked layers.
First, a scope model defines what is included in the market and what is excluded, ensuring that adjacent products, downstream finished goods, unrelated instruments, or broader chemical categories do not distort the market boundary.
Second, a demand model reconstructs the market from the perspective of consuming sectors, workflow stages, and applications. Depending on the product, this may include Residential electrification, Community-scale mini-grids, Telecom tower power, Agricultural water pumping, Remote mining & construction sites, and Healthcare facility electrification across Residential/Household, Commercial & Industrial, Telecommunications, Agriculture, Public Infrastructure, and Humanitarian and Site assessment & load profiling, System design & component sizing, Procurement & logistics, Installation & commissioning, and O&M & performance monitoring. Demand is then allocated across end users, development stages, and geographic markets.
Third, a supply model evaluates how the market is served. This includes Solar-grade polysilicon, Silver paste, Encapsulant (EVA, POE), Tempered glass, Backsheet, and Aluminum frame, manufacturing technologies such as High-efficiency monocrystalline PERC, Bifacial gain in ground-mounted off-grid, Durability enhancements (salt mist, humidity, hail), and Module-level power electronics (MLPE) for off-grid optimization, quality control requirements, outsourcing, contract manufacturing, integration, and project-delivery participation, distribution structure, and supply-chain concentration risks.
Fourth, a country capability model maps where the market is consumed, where production is materially feasible, where manufacturing capability is limited or emerging, and which countries function primarily as innovation hubs, supply nodes, demand centers, or import-reliant markets.
Fifth, a pricing and economics layer evaluates price corridors, cost drivers, complexity premiums, outsourcing logic, margin structure, and switching barriers. This is especially relevant in markets where product grade, purity, customization, regulatory burden, or service model materially influence economics.
Finally, a competitive intelligence layer profiles the leading company types active in the market and explains how strategic roles differ across upstream material suppliers, component and controls providers, OEMs, storage-system integrators, EPC partners, project developers, and distribution or service channels.
This report covers the market for Off Grid Solar Pv Panels in its commercially relevant and technologically meaningful form. The scope typically includes the product itself, its major product configurations or variants, the critical technologies used to produce or deliver it, the core input categories required for manufacturing, and the services directly associated with its commercial supply, quality control, or integration into end-user workflows.
Included within scope are the product forms, use cases, inputs, and services that are necessary to understand the actual addressable market around Off Grid Solar Pv Panels. This usually includes:
Excluded from scope are categories that may be technologically adjacent but do not belong to the core economic market being measured. These usually include:
The exact inclusion and exclusion logic is always a critical part of the study, because the quality of the market estimate depends directly on disciplined scope boundaries.
The report provides global coverage. It evaluates the world market as a whole and then breaks it down by region and country, with particular focus on the geographies that matter most for deployment demand, battery-material processing, cell and component manufacturing, power-conversion capability, renewable integration, and project delivery.
The geographic analysis is designed not simply to rank countries by nominal market size, but to classify them by role in the market. Depending on the product, countries may function as:
This study is designed for strategic, commercial, operations, project-delivery, and investment users, including:
In many energy-transition, storage, power-conversion, and project-driven markets, official trade and production statistics are not sufficient on their own to describe the true market. Product boundaries may cut across multiple tariff codes, several product categories may be bundled into the same official classification, and a meaningful share of activity may take place through customized services, captive supply, platform relationships, or technically specialized channels that are not directly visible in standard statistical datasets.
For this reason, the report is designed as a modeled strategic market study. It uses official and public evidence wherever it is reliable and scope-compatible, but it does not force the market into a purely statistical framework when doing so would reduce analytical quality. Instead, it reconstructs the market through the logic of demand, supply, technology, country roles, and company behavior.
This makes the report particularly well suited to products that are innovation-intensive, technically differentiated, capacity-constrained, platform-dependent, or commercially structured around specialized buyer-supplier relationships rather than standardized commodity trade.
The report typically includes:
The result is a structured, publication-grade market intelligence document that combines quantitative modeling with commercial, technical, and strategic interpretation.
Energy-Storage Market Structure and Company Archetypes
The Key National Markets and Their Strategic Roles
Known for Maxeon technology for durability
Major global manufacturer with strong distribution
One of world's largest panel producers
Leading in solar module shipments globally
World's largest monocrystalline wafer manufacturer
Major supplier with high-efficiency PERC panels
Known for Alpha HJT panels with long warranty
Premium panels for reliability in off-grid
Exiting solar business but legacy products remain
Specialist in consumer & small-scale off-grid
YETI power stations integrated with solar panels
Popular for portable, all-in-one off-grid power
Rapidly growing in portable solar generator market
Key system integrator; uses panels from others
Focus on residential aesthetic and performance
Strong brand in residential and commercial
Specialist in lightweight, flexible off-grid panels
Major player in Indian off-grid solar market
Provides off-grid systems to African households
Serves off-grid populations in Africa & Asia
Major PAYG provider in Africa and Asia
Growing supplier for off-grid and distributed projects
European manufacturer with global distribution
Provides panels for various off-grid applications
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TDI Renewables has secured €25.5 million in financing from Raiffeisen Bank International AG for the development of the Irato?u photovoltaic project—a 58 MWp installation located in Arad County, according to the local media.
The EPC (Engineering, Procurement, and Construction) contract was awarded in July to Ameresco Sunel Energy, which will manage the project through every phase—from design and procurement to construction, commissioning, and long-term operations. According to the British company, as reported by Profit.ro, the project will later be supplemented with a Battery Energy Storage System (BESS) with a capacity of 88 MWh.
Based in London, TDI Renewables develops large-scale solar, wind, and energy storage projects across Central and Eastern Europe. The company has been active in Romania since 2023, targeting a total portfolio of 1 GW of photovoltaic and wind assets in the market, alongside BESS installations with an aggregate capacity of 2,200 MWh. TDI Renewables is financially backed by the Israeli investment fund Helios Energy Investments, with whom it entered into a strategic partnership in 2024 to accelerate the development of its portfolios in Romania, Poland, Bulgaria, and Kosovo.
Thursday, October 22, 2026
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Trinity High School in River Forest recently began installing solar panels on the school’s roof in a project that is expected to generate more than 70% of its electrical power needs once operational.
Cranes lifted the panels Oct. 18 onto the school’s roof, where workers installed them into brackets. The installation is expected to take about eight weeks to complete, and school officials said the panels are expected to last around 25 years.
Tina Taylor-Ritzler, Trinity’s president, said the project aligns with the school’s wider mission.
“This idea is a response to meet the goal of our stewardship of our Earth,” she said.
The $1.5 million project was funded through a power purchase agreement through Dewan Solar, an organization that helps nonprofit organizations, such as schools, transition to solar energy. Energy rates differ based on the time of year and how much energy is used, but over the next 15 years, Trinity will pay Dewan at a low fixed rate from its energy consumption from the panels, Taylor-Ritzler said, and after that time period, the panels will be turned over to Trinity.
The partnership operates at the federal and state level which allows Dewan to regain some of its investments to use for future solar projects, officials said.
The project at Trinity, an all-girls Roman Catholic school, ties into the church’s global initiatives to embrace environmental justice. It adopts Pope Francis’ papal encyclical titled Laudato Si’ that was written in 2015, which addresses environmentalism and climate change, Taylor-Ritzler said.
The panel installation also aligns with a United Nations Sustainable Development Goal promoting affordable and clean energy, Taylor-Ritzler said, making it the right time to put the panels in.
“For the shared mission, shared commitment to sustainable development and to environmental justice, all of that together is why we partnered with Dewan, and Dewan has been taking care of all of those details for us,” Taylor-Ritzler said.
Over its expected 25-year lifetime, Trinity’s solar system is expected to prevent 18.4 million pounds of carbon emission, which is equivalent to taking over 1,100 cars off of the road or planting over 274,000 trees to cleanse the air, officials said.
Taylor-Ritzler is currently in her second school year of presidency at Trinity and was only in the role for about six months when she signed the agreement for the installation last December. She saw the project as a way to participate in a “more just and humane world for all of us to live in together.”
She worked with Gary Cuneen, the founder and executive director of Seven Generations Ahead, another nonprofit that works with local government, community and private sector leaders to help communities make environmental changes.
“It’s been really a joyful start to my presidency to find like-minded partners, to find people who want to work together and to do something really exciting for this community and for our shared home, planet Earth,” Taylor-Ritzler said.
chardy@chicagotribune.com
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Italy’s solar output totaled 5.32 TWh in September 2026, marking a 27.1% rise versus the same month a year earlier, according to grid operator Terna‘s monthly electricity report. Solar represented 48.6% of renewable-source generation for the month, with year-on-year output growth of 1.14 TWh.
According to Terna, the gain stemmed largely from newly installed capacity, which delivered 731 GWh of additional generation, while better resource availability accounted for 404 GWh.
Renewables met 39.4% of national power demand in September, a 2.3% decrease relative to September 2025. Total net generation climbed 6.4% year on year. Renewable sources produced 10.94 TWh, edging up 0.6%, whereas non-renewable output reached 12.73 TWh, an 11.8% increase.
Power demand came to 27,765 GWh, up 6.5% from September 2025 and 8.4% from September 2024.
Renewable generation capacity expanded by 675 MW in September, exceeding the same month last year by 238 MW, or 54.5%. Across the first nine months of 2026, installed solar capacity rose by 4,834 MW, 18.6% above the 4,078 MW added during the corresponding period of 2025.
In the first nine months of 2026, Italy brought online 911 MW of nominal operating storage power capacity, versus 1,482 MW a year earlier, a drop of 572 MW, or 38.6%. Maximum usable storage capacity grew by 1,962 MWh, compared with 4,376 MWh in the same period of 2025, a decrease of 2,415 MWh, or 55.2%.
As of Sept. 30, 2026, Terna counted 984,831 active energy storage systems.
Interactive table based on the Store Companies dataset for this report.
Report Scope and Analytical Framing
Concise View of Market Direction
Market Size, Growth and Scenario Framing
Commercial and Technical Scope
How the Market Splits Into Decision-Relevant Buckets
Where Demand Comes From and How It Behaves
Supply Footprint and Value Capture
Trade Flows and External Dependence
Price Formation and Revenue Logic
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How the Report Was Built
Part of Enel Group, develops solar plants globally
Major global inverter manufacturer
Renewable energy systems integrator
Distributor for major PV brands
Solar asset manager and developer
Engineering, procurement, construction
Joint venture for solar plant operation
PV systems for building envelopes
PV module manufacturer
Inverter and energy storage systems
Subsidiary of global LEDVANCE group
Major Italian lighting manufacturer
Designer architectural LED lighting
Part of Fagerhult Group
Industrial and commercial LED
Landscape and urban LED lighting
Indoor and outdoor LED fixtures
Industrial and decorative lighting
LED modules and drivers
Innovative LED fixtures and systems
LED lighting for interiors
Architectural and industrial LED
LED lamps and home products
Commercial and residential LED
Industrial and street LED lighting
LED fixtures and controls
Solar system design and installation
Energy efficiency and PV systems
Residential PV system provider
LED lighting manufacturer and distributor
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Nearly a quarter (23 percent) of UK homeowners say the main reason they purchased solar panels was to increase their property value. Solar panels can increase home value by up to 7.6 percent and can increase a home’s EPC rating.
According to BOXT’s findings, house buyers are prepared to spend as much as 7.6 percent more on a home that has solar panels. This would add £20,547 on average to the value of a home in the UK (the average UK house price being £270,000.)
Solar panels can increase property values by lowering energy bills, increasing a property’s EPC rating and through being considered as home upgrades.
The increase in property value is mainly due to how much solar power can save homeowners on energy bills. Solar panel owners can also sell surplus generation back to the grid through the Smart Export Guarantee (SEG) – bringing in even more money.
According to The Eco Experts’ latest survey data, UK homeowners who purchased solar panels were able to save an average of £462.7 on their annual energy bills
Solar panels can increase a property’s Energy Performance Certificate (EPC) score, which is a measure of its energy efficiency – by over two levels. This can be hugely desirable for buyers and is something an estate agent should be disclosing during viewings and when making a sale.
The Department of Energy and Climate Change (DECC) analysed over 320,000 properties between 1995 and 2011 and found that when a home’s EPC rating rose from band G to E – or from D to B – its property price also rose significantly.
Solar-equipped homes also tend to sell for more because solar panels are considered to be upgrades to the home, similar to how an extension or conservatory increases a home’s value.
According to The Eco Experts’ calculations, it could take the average household almost 15 years (14.55 to be precise) to break even. Solar panels typically last at least another 10 years after this point.
“Solar panels are a fantastic investment for any household because they will make homeowners money in the long term, be it through cutting energy bills, selling surplus power to the grid, or making a home more valuable should homeowners choose to sell it” said The Eco Experts’ Deputy Editor, Max Schwerdtfeger. “To anyone considering solar panels, remember two important things: firstly, think long term. It’s not just about saving money this winter, solar panels are an investment that will massively pay off in the future, be it through making a home more valuable or giving more income through the Smart Export Guarantee. Secondly, act decisively. Solar panels are not subject to VAT. But that could all change on the 1st April next year when the 0 percent VAT is set to expire. That makes it really important that homeowners get their panels as soon as they can, otherwise they may end up paying more than they otherwise would. Solar energy is here to stay, and there will come a time when prospective buyers will look at a home’s capacity for generating cheap energy when they’re househunting. Not having solar panels on a home’s roof could leave homeowners behind in the short and long term. Think about the future, act now, and give themselves the best chance to make themselves and their family money.”
For additional information:
The Eco Experts
Solar Satisfaction Awards survey

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The partnership comes as U.S. energy bills rise and could serve as a model.
Photo Credit: Getty Images
In Illinois, the Barack Obama Foundation is serving as an anchor tenant for community solar projects, one of the most important roles in pushing renewable energy forward.
By subscribing to a large share of the power, the foundation can help supply the Obama Presidential Center in Chicago with renewable electricity while leaving more capacity available for low-to-moderate-income households and small businesses.
Under the agreement, the foundation will be the main tenant for community solar projects in Illinois that Reactivate is developing. Its participation is intended to provide the financial support Reactivate needs for those portfolios, while the remaining capacity stays open to low-to-moderate-income households and small businesses, according to Solar Builder.
The deal also aligns with the Obama Presidential Center’s sustainability plans. Valerie Jarrett, CEO of The Obama Foundation, said, “President Obama set a clear vision: to make sustainability a centerpiece of all we do, and to serve as a model for what is possible.”
Residential and commercial subscribers may reduce utility costs through Illinois Solar For All and other regional programs.
Going solar is one of the best ways to save on home energy costs, especially as power bills climb. Readers who want to compare local options can use EasyHome‘s free explorer tool to see pricing and savings from vetted installers in their area.
This setup uses a large nonprofit’s electricity demand to support a broader community solar model. The presidential center gets renewable power through the arrangement, while households and small businesses that might otherwise face barriers can still access the rest of the capacity.
Jarrett framed the choice as both a climate decision and a local one. “We believe that taking care of the one planet we have starts with the choices we make right in our own backyard. That is why the Obama Presidential Center not only is sourcing 100% of our electricity from renewable energy, but we are also partnering with a company that will expand access to solar energy to our neighbors.”
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.
The partnership comes as U.S. energy bills rise and could serve as a model for other organizations looking to lower emissions and costs.
The state also approved legislation to broaden solar programs and ease limits on the regional solar pipeline, which could make it easier for more projects like these to move forward.
The center-stone is the anchor-tenant model. By committing to a large share of the projects’ output, the Obama Foundation gives Reactivate the predictable demand it needs to move its community solar portfolios forward.
Reactivate CEO Utopia Hill said that approach has immediate consumer benefits: “By stepping forward as an anchor tenant, The Obama Foundation helps power the Presidential Center with clean energy while actively lowering the barrier to entry for local families and small businesses to cut their energy costs.”
For homeowners looking for their own setup, EasyHome‘s free explorer tool makes comparison shopping easier by showing pricing and projected savings from vetted installers. It can also help readers explore backup battery storage options, which can complement rooftop solar.
Reactivate senior vice president of origination and contracting Tuba Avcisert said the partnership reflects a mission for a cleaner future: “(The Obama Foundation’s) trust in Reactivate to serve the Obama Center’s energy needs reflect a shared belief, that clean energy projects should create lasting, meaningful benefits for the local communities they serve.”
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Balcony solar could be going nationwide in the U.S., thanks to a new bill introduced by Rep. Rob Menendez.
The New Jerseyan Democrat introduced H.R. 10851, dubbed the ‘Socket Full of Sunshine Act,’ is the first federal bill of its kind in the U.S. The legislation would help expand access to plug-in solar panels, also known as “balcony solar,” helping families across the country save on their utility bills with rebates up to $1,000.
Already widely used in central European countries like Germany, plug-in solar has taken the U.S. by storm since first passing in Utah in March 2025 thanks to its simplicity; users can plug the system into their wall and see bill savings nearly immediate. Alongside the nod to British pop artist Natasha Bedingfield’s top-five hit, ‘Pocketful of Sunshine,’ the bill’s title makes reference to plug-in solar’s now famous level of ease of use.
“Families are getting squeezed by electric bills that keep going up,” says Rep. Rob Menendez, the bill’s chief author. “Plug-in solar is a simple, affordable way to cut those bills, but outdated rules and unnecessary fees are standing in the way. The Socket Full of Sunshine Act clears those barriers so more families, including renters, can start saving.”
Menendez says the new legislation could cut electricity bills by “hundreds of dollars a year” for homeowners, and remove residential solar installation costs nearly entirely. Since electrical bills in New Jersey spiked nearly 17% in 2025, access to residential solar has become more crucial than ever around the U.S.
With typical balcony solar system costs ranging from $285 to $3,500, the value proposition is through the roof, according to Menendez.
The new bill would make good on the promise of balcony solar, which promises “plug and play” usage for homeowners and renters. Some utilities and slate legislatives bodies have required these systems to submit to utility connection agreements which often apply to larger rooftop systems. The legislation would require those states to consider removing those hurdles.
In addition to cutting red tape, the bill would set a clear safety standard for plug-in solar devices, one of the major barriers to legislative measures that have failed at the state level. Additionally, the bill would create a $100 million grant program within the U.S. Department of Energy to fund state rebates on these systems for low- and moderate-income households.
“Representative Menendez has just taken a giant leap toward energy affordability for all Americans,” says Cora Stryker, co-founder and co-CEO of Bright Saver, a California-based nonprofit focusing on bringing balcony solar to the U.S. “10 states now have laws on the books to open the door to affordable solar that plugs into a standard outlet. Representative Menendez has just opened the door to energy equity in all 50 states, for renters and homeowners alike.”
The new bill would also create a label for each balcony solar product, showing consumers the savings they can expect on their electrical bills.
Xavier Boatright, deputy legislative director for clean energy and electrification at Sierra Club, says his organization is “grateful” for the new bills. Looking toward Menendez for leadership, the grassroots environmental nonprofit is fully behind the new legislation, he says.
“Plug-in solar can help households reduce energy bills, lower demand on the grid, and decrease dangerous emissions,” Boatwright says. “This bill would help renters and low- and moderate-income households access the benefits of clean energy.”

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There’s something a bit magical about generating solar electricity yourself. By the simple act of the sun coming up every day, there is energy arriving on Earth, ready for us to convert to usable, sustainable electric power, ready to top up an electric bike or any other appliance. Richard Peace shares his experience of converting that solar panel power generation into a top-up for his electric bike batteries, even while mobile…
I’ve run through what I think are the three main broad approaches home generators might choose to take to help themselves to some of that lovely green energy that’s available just about every day (if you have a large enough panel setup even on the dullest of winter days you will get some solar energy and on a glorious midsummer day you’ll be overwhelmed with it).
These approaches are: 
There is further good news; the solar industry is now big business so that means some pretty cost-effective prices and products that are more efficient than ever – so it’s easier than ever to get a meaningful amount of energy from a home setup.
A final note before we dive into a bit more detail; the solar panels I’m talking about here are photovoltaic (PV) panels that generate electricity when the sun’s rays hit a semiconductor in the panel (usually in the form of silicone cells). Solar thermal panels are not relevant here as they don’t generate electricity; with solar thermal, the sun directly warms a heat-transfer fluid which circulates through tubes in the panels, which then produces hot water for your house. And whilst solar thermal panel costs have remained relatively high, solar PV panel prices have tumbled over recent years.
This is undoubtedly a very simple and efficient way to charge e-bike batteries, but unfortunately there are no e-bike companies I know of that manufacture this system so it’s in the domain of those happy to fit and use kits and to take responsibility for sourcing and assembling components themselves. It involves a single solar panel plugged into a small, lightweight charge controller, which then plugs directly into your electric bike battery. 
As kits are usually modular in form and most are made for the end user to fit them themselves I find it a bit surprising that only one company – Grin – are promoting solar products alongside their kit offerings with which they can be charged. 
How does it work? You need a solar panel and a compatible charge controller with connectors that plug into both your panel and the battery. That’s it. I must stress this won’t work with the vast majority of systems out there and whilst the very competent kit DIYer could assemble a whole system it’s probably best to at least go with a charge controller and compatible battery as sold by Grin.

I have successfully been using a panel-to-bike-battery solar system for a few years. Currently, it comprises an Ecoflow 220W, 21V rated folding panel, an Elejoy 400W step-up controller and some Grin-sourced 36V batteries used to power a Brompton kit.
It works well in bright sunny weather but if you want to use the system in cloudy but bright weather I would recommend the greater efficiency of a rigid solar panel (these are generally far cheaper than folding or flexible panels too, watt for watt), though that means the system then becomes much less portable. For mobile use the ultimate choice would be a lightweight, efficient but super pricey Powerfilm type panel. 
Pros
Light and quick to set up
Efficient – this is a DC to DC system so with a good  MPPT charge controller efficiency can be in the 90%s (by contrast all other routes for charging an e-bike via solar mean going from DC panels to AC then back to the DC battery on the bike, giving significantly less efficiency).  
If you use a flexible solar panel you can carry the system around with you.
With a fixed base rigid panel it is the cheapest option here
Cons
You need to source and assemble all the parts yourself and to have the requisite knowledge and confidence in your own ability.
In the UK’s climate it’s not really a feasible proposition to cut your house off from the grid and go completely solar. It is however not only possible but practicable and (compared to a larger grid-tied system) affordable to hook up some solar panels on a garage, shed or lawn and easily generate enough power to charge e-bikes and other relatively low power devices for much of the year.
There are two broad options;
1. An ‘all in one’ so-called powerbank or powerstation which entails simply plugging in your solar panel or panels at the back and your e-bike mains charger at the front. Ecoflow are one of a number of firms that make so-called ‘powerbanks’ (amongst much else). 
Whilst these sound like no more than battery packs they are much more; they can be readily charged by solar panels with a suitable wattage rating and the biggest capacity ones like the EcoFlow Delta 3 Plus that I tested can power not just e-bike chargers but much more power- hungry domestic devices and even smaller power tools.   
The Delta 3 Plus has a rated capacity at just over 1kWh and it’s intuitive and easy to use with the display telling you just what’s going on in terms of solar input and power output and a capacity remaining in % figures in nice big figures. The Plus model I tested was able to take more solar input than other variants at 1,000W so two large rigid panels on a sunny lawn meant superfast recharging.  
One word of warning though; don’t expect to get the full rated Wh capacity out of the powerstation – there will be efficiency losses depending on things like ambient temperature (cold reduces battery performance of course) and the efficiency of your e-bike charger. I got around 750Wh from the Ecoflow 1,000W system battery on a summer day depending on what e-bike I was charging – still a very good reserve of power that will give a full charge to an average sized e-bike battery.
This is no fault of the powerstation battery but a natural consequence of changing electricity from DC battery power to AC power to use a mains charger then back to the DC power stored in your e-bike battery. All powerstations work in a similar way. The unit generally performs well in independent reviews.  
Pros
Easy to use
At 12.5kg it is reasonably portable 
Can be used even when the sun is not shining

Cons
Powerbanks are not modular as DIY systems are; if out of warranty and a component breaks then it cannot simply be swapped out as it can with a DIY system, described below.
Not as efficient as a solar panel direct to battery system (the first method described)
2. An off grid DIY ‘build’ involves sourcing panel, charge controller and batteries yourself along with the requisite size wiring, fuses and switches. Knowledge and expert advice is critical to doing this safely and ensuring the system works as it should, especially if you are stringing solar panels together to produce higher voltages.  
Here is not the place to go into the detail of this, rather just to give an overview of a relatively small home system I put together. I sourced parts largely from Renogy, including a 20amp charge controller, two 1000Wh batteries, a 2000W inverter and a 440W solar panel. Total cost was around £850 including these items plus switches and fuses. I use it power the bike shed lights and power tools and to make ‘solar tea’ using a modestly rated travel kettle. 
Off-grid expert advice and kit is available from the likes of Midsummer and Sunshine Solar.
Pros
Individual parts replaceable if they fail ie it is modular
Can scale up with more batteries, panels, higher rated controllers and inverters etc 
Can be used when the sun doesn’t shine

Cons
Requires knowledge, DIY electrical skills and expert input
Probably won’t save you much (if any) money compared to the powerstation option
Not portable
Not as efficient as a solar direct to battery system (the first method described)
In other words, solar panels on your house roof which are then wired into the mains system (a so-called ‘grid-tied’ system) that can provide large amounts of solar power that comes straight out of your house’s plug sockets during bright conditions. These setups provide more than enough power for the typical house on a sunny summer day and are set up to be able to export electricity to the grid, for which you may get paid if you qualify under the Smart Export Guarantee.
I’ve had a 4kW system (that’s the peak nominal output rating) installed since 2015 and payments received for the electricity generated plus the cost of electricity saved means the system has now paid for itself, so electricity generated is effectively free, whatever it is used for, including charging of e-bikes.
For much of the year electricity generated is actually in excess of the house’s needs so I’ve also invested in a solar storage battery system. As electricity prices rise it becomes increasingly financially worthwhile to store the energy rather than export it so it can be used at night time and on days of heavy cloud.
My 10.2kWh capacity battery system can of course be used to recharge e-bikes and a new heavy duty cable means the 6kWh inverter it uses will also be quite capable of charging an electric car. A Solics solar diverter means it can also be used to heat hot water via the immersion tank element when there is surplus solar power.
If you get a smart meter and choose a suitable tariff from the likes of Octopus, you can also programme the system via an app to load up the battery with cheap off-peak electricity and save a bit of dosh that way. 
The tricky bit is choosing from the many systems out there and getting good advice. I chose Ecoflow’s PowerOcean system on the basis they are a large and longstanding company offering a lengthy warranty and I also had good initial conversations with their recommended local installers, The Solar People.
You’ll also need a space to put the battery outside your house (rules now prohibit installing the battery inside a house). A garage or outbuilding is ideal but a sheltered spot on an outside wall is also possible. If you want to read about the ins and outs of solar storage batteries in more detail A to B issue 143 has a great article.
Solar installation costs have tumbled over the last decade, driven largely by a fall in prices for solar panels and seem to have bottomed out at around £5,000 for a 4kW system. My recently installed Powerocean solar battery from Ecoflow was very competitively priced at around £5,300 including installation and comes with a 15-year manufacturer’s warranty. It’s probably most economical to get a solar panel and battery system fitted all at once, if that’s the route you are likely to ultimately go down anyhow.
Pros
A cost-effective system given that you can power a lot things with, not just e-bikes! 
Add in a solar storage battery to make the most use of long sunny days and store cheap electricity at off-peak hours. 
Cons
This is undoubtedly expensive kit – but in the long run, just like a high quality e-bike, it can save you money
It remains to be seen if e-bike companies themselves embrace solar power themselves to a much greater extent than they have already – at present, offerings are limited to the commercial sphere and come from the likes of Solarcycle and Sunrider. But my own experiments have convinced me that, with advances in solar tech and falling prices, portable e-bike solar charging could well be offered alongside an e-bike purchase in the not too distant future. Such ventures currently seem confined to the likes of US’s Mokwheel at present but slicker and lighter systems are surely possible.  
Further reading: Will there ever be a true solar power fed e-bike?
Richard Peace has almost certainly ridden and reviewed more electric bikes than anyone in the UK making him uniquely qualified to tackle reviews for Cycling Electric.
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To support its solar cell manufacturing plans, Navitas has secured up to USD 20 million in growth capital from responsAbility, a Swiss impact asset manager, on behalf of its investors. In a press release, Navitas said the investment would support its expansion into solar cell manufacturing, including a planned 2.2 GW solar cell manufacturing facility in India.
The investment is expected to advance the company’s strategy to build a more integrated clean-energy manufacturing platform. It is part of responsAbility’s Asia Climate Fund, which targets scalable private-sector solutions and positive societal impact in high-growth markets.
Mumbai-based Centrum Capital’s Infrastructure Advisory arm, which has advised established players in the solar manufacturing and energy transition sectors, acted as the exclusive financial advisor to Navitas.
Navitas’ expansion aligns with these priorities, focusing on energy security, greater domestic value addition, and the development of globally competitive clean-energy supply chains in India. The company also aims to deepen its backward integration by entering wafer and ingot manufacturing in the near future.
Founded in 2013, Navitas has 2.2 GW of operational module capacity and an established presence in solar encapsulants. It also runs solar EPC and renewable power generation businesses in India and abroad, including utility-scale EPC projects in Africa. The company recently announced plans to invest approximately USD 1 billion over five years in Gujarat and Maharashtra to build an integrated platform spanning ingots, wafers, cells, modules, battery energy storage systems and renewable power generation.
Navitas has established itself as an integrated renewable energy player, with a presence across solar module manufacturing, encapsulant manufacturing, engineering, procurement and construction (EPC) services, battery energy storage systems (BESS), and renewable power generation. Its planned entry into solar cell manufacturing marks a step towards greater backward integration, enabling the company to expand its presence across the solar value chain and strengthen its long-term competitiveness.
Commenting on the investment, Vineet Mittal, Director, Navitas, said: “We are pleased to welcome responsAbility as an institutional partner in the next phase of Navitas’s journey. Their investment is important not only as growth capital, but also because of the strong alignment between our long-term objectives. Our backward integration into solar cells will strengthen domestic supply chains and can create greater value addition within India. Our work in high-efficiency TOPCon technology and our partnership with Caelux on Perovskite-TOPCon Hybrid Tandem modules reflect our ambition to build advanced technologies that can compete globally. We see this partnership with responsAbility as an important step towards realizing that ambition responsibly and sustainably.”
Vijay Menon, COO, Navitas Solar, said: “As Navitas scales, we want to build an organisation that is not measured only by capacity, revenue or profitability, but also by how responsibly and sustainably that growth is achieved. Strong governance, environmental stewardship, responsible employment practices and a positive contribution to the communities and ecosystem around us will remain integral to building Navitas as a long-term institution. Securing funding from responsAbility is a validation of the hard work done so far and demonstrates our commitment to continued excellence and improvement.”
 Kartik Jain, Head – Finance, Navitas Solar, said: “Securing funding from ResponsAbility is an important milestone for Navitas as we continue to strengthen our financial foundation and accelerate our growth journey. This partnership reflects the confidence of a leading climate-focused investor in our business fundamentals, our execution capabilities, financial strategy, and the long-term growth potential of India’s solar manufacturing ecosystem. This funding will enhance our financial flexibility and support our efforts to scale operations, strengthen our capabilities and contribute to India’s clean energy transition.”
Jay Bathija, Principal, Climate Infrastructure Investments at responsAbility, said: “Navitas has established a strong track record in solar module manufacturing. Its expansion into cell manufacturing is a natural next step that will deepen integration across the solar value chain and can strengthen its long-term competitiveness. We are pleased to partner with Navitas as it aims to contribute to India’s clean energy and domestic manufacturing ambition.”
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T1 Energy receives waiver to import solar cells from Commerce By Investing.com  Investing.com UK
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Navitas Solar has secured up to USD 20 million in growth capital from responsAbility to support the development of a planned 2.2 GW solar cell manufacturing facility in India.
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From Cell Innovation to Module Design: YINGFA Brings Greater Flexibility to Module Makers at REI 2026  SolarQuarter
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Rwanda’s Energy Development Corporation Limited (EDCL) has issued a tender for a 200 MW floating solar power plant paired with an 800 MWh battery energy storage system, according to pv magazine. The facility is planned for Lake Sake in the Ngoma district of Rwanda’s Eastern province.
Tender documents indicate the project will follow an independent power producer model. The winning developer would sign a long-term power purchase agreement with the state-owned Rwanda Energy Group through its subsidiary, the Energy Utility Corporation Limited, which would serve as the offtaker.
The selected bidder would handle design, supply, installation, testing, commissioning, operation and maintenance of both the floating photovoltaic system and the storage component. Applicants must demonstrate at least a decade of experience in designing, building and managing renewable energy plants.
The process opens with a pre-qualification round in which interested independent power producers must satisfy administrative, technical and financial criteria laid out in documents posted on the Rwanda Energy Group website. A site visit for prospective applicants is scheduled for October 23, and electronic submission of initial bids is due by November 12.
Rwanda’s solar sector remains at an early stage. The Africa Solar Industry Association has recorded 47.5 MW of operational solar capacity in the country to date, based on its project database.
Floating solar installations remain scarce across Africa, even though research points to substantial potential for deploying solar on the continent’s inland waters. A 2023 study estimated that Africa could reach 100 GW of solar generation by using 1% of its reservoir surface area.
The biggest floating solar project in development on the continent is a 600 MW installation on Lake Kariba, which sits on Zimbabwe’s northern border with Zambia and is the world’s largest artificial lake and reservoir by volume. Zimbabwean government officials said last December that construction would start this year, beginning with an initial 150 MW phase.
The largest operating floating photovoltaic project in Africa so far is a 13 MW array in Morocco that began operating in July.
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Leading Taiwanese LED chip manufacturer
Innovator in WICOP and SunLike technologies
LED components for automotive and IT
IBC cell technology leader
Solar project developer and manufacturer
Integrated PV manufacturer
Historically significant in both fields
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Solar manufacturing arm of Chint Group
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Google supersizes PJM virtual power plant to more than 1 GW  Utility Dive
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Chinese solar cell and module maker Aiko Solar has revealed plans to upgrade and convert its Tianjin base from passivated emitter and rear contact (PERC) solar cell capacity to 6 GW of its all-back-contact (ABC) cell capacity.
Aiko’s proprietary ABC cells feature n-type technology which shifts all electrical grid lines and busbars from the front surface to the rear side of the cell. The architecture is intended to increase light absorption and improve aesthetics, particularly for rooftop and distributed PV applications.
A filing on the Shanghai Stock Exchange explains that project will utilise the existing PERC plant as the production workshop, adding new process production equipment and upgrading supporting power auxiliary equipment and facilities.
“This capacity upgrade will introduce the company’s latest ABC technology, producing ABC battery products with higher conversion efficiency, better product performance, and greater market competitiveness,” the filing adds.
Aiko estimates total investment for the project will reach CNY 1.15 billion ($172.2 million), of which CNY 1.131 billion is for fixed assets and CNY 19 million is for initial and working capital. It will be raised through various means, the company says, including own capital, financing from financial institutions and cooperation with industry ecosystem partners.
In the filing, Aiko’s Board of Directors explains the upgrade aligns with the development trend of the photovoltaic industry and is consistent with the company’s strategic development direction. They add that current p-type PERC cell mass production efficiency has “reached a bottleneck”, with market demand declining, prices falling and cells facing the risk of rapid obsolescence.
“After this technological upgrade, related production capacity will be fully upgraded to ABC technology, offering higher photoelectric conversion efficiency, better aesthetics and improved safety,” the directors add.
The upgrade is planned to start in the fourth quarter of this year, before gradually entering production in the third quarter of 2027.
Aiko introduced its fourth-generation G4 Infinite Ultra module in July, extending its ABC module platform into the 690 W power class.
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The 7th Agrivoltaics World Conference began on 21 October 2026 at Bharat Mandapam in New Delhi and is scheduled to conclude on 23 October. India is hosting the global conference for the first time in the Global South. The Ministry of New and Renewable Energy (MNRE) is hosting the event, with support from Germany’s Federal Ministry for the Environment, Climate Action, Nature Conservation and Nuclear Safety and in partnership with Conexio-PSE.
Agrivoltaics, also called AgriPV, refers to the combined use of the same land for agriculture and solar photovoltaic power generation. Solar panels can be installed above crops or on agricultural land while farming continues beneath or around them. The design and operation of an agrivoltaic system can involve choices about panel height, spacing, crop selection, water management and access to machinery. The conference theme is “Powering the Global South”. Its discussions cover crop productivity, policy frameworks, financing models and farmer-centred business models for combining food production with clean energy generation. Union Minister of Agriculture and Farmers Welfare Shivraj Singh Chouhan stated that policies should address the practical needs of small and marginal farmers, who account for over 85% of India’s farming community.
Union Minister for New and Renewable Energy Pralhad Joshi and Shivraj Singh Chouhan jointly inaugurated the conference on 21 October. More than 1,200 delegates, including over 150 international participants, are attending the hybrid event, which supports in-person and online participation. The opening ceremony featured the launch of MNRE’s AgriPV Policy Handbook, a Decision-Making Tool by the India Agrivoltaics Alliance (IAA), and a Book of Abstracts by the International Water Management Institute (IWMI).
PM-KUSUM, the Pradhan Mantri Kisan Urja Suraksha evam Utthaan Mahabhiyan, supports solar energy in agriculture through components that include decentralised solar power plants and solarisation of agricultural pumps. The next phase of the scheme is expected to further support agrivoltaics in India.
MNRE is the Union ministry responsible for promoting new and renewable energy in India. The conference’s three launched resources include a policy handbook, a decision-making tool and a book of abstracts.
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Words and Photos by Cy Whitling
Two years ago COROS dropped its first bike computer, the Dura Solar. I’ve been using COROS watches for all my GPS needs for a long time, and I reviewed that first foray into on-bike computation for another publication when it came out. It was a bit of a unique product that suited a niche audience, and I happened to fall into that niche of people who don’t care about the snaziest modes and features but just want a computer with a battery that lasts forever. So I really dug the Dura 1, while also understanding why people who are really into bike computers (roadies, triathletes, nerds—said affectionately) were underwhelmed by it.
But now COROS has an all-new DURA 2 Solar that sets out to hit all the marks the first version didn’t. This is an unabashedly premium, full-featured, high-end bike computer with the design language to match. So I had a couple of questions coming into this review: First, does the new Dura 2 retain the user interface and battery life that I love about other COROS products and, second, is this new one any better for mountain bikers than the previous version?
The most obvious change to the Dura, and the one that COROS seems to be most proud of is its packaging. Most bike computers look like, well, bike computers. The Dura 2 feels much more futuristic. The super thin screen is cantilevered out from the chunkier solar section with lines and materials (aluminum and carbon fiber) that just plain look fast. This thing would be right at home on the craziest looking triathlon or time trial rig.
There is some functionality to that design as well. The old Dura had a big blank area up top that housed its solar panels. It was functional but not beautiful. The new Dura 2 uses that lower solar panel zone to house two haptic buttons that allow you to scroll and navigate within the device. They’re not absolutely necessary—the Dura 2’s touch screen is excellent and its voice controls work well too, but they do keep the solar zone from just being dead space.
COROS says the Dura 2’s screen also got a bunch of attention. The 3.5-inch touchscreen works fairly well in all conditions, even light rain, and it’s got a fastest-in-MIP-display-class refresh rate of 38 hz. The Dura 2 also has a bunch of sensors including a barometric altimeter, accelerometer, gyroscope, electronic compass, microphone, and temperature sensor. So yeah. This is a serious computer, and it’s always worth marveling at the fact that we put men on the moon with a lot less.
It’s quite evident that the Dura 2 is meant to fix a lot of the original’s shortcomings, while also elevating itself into a totally different, more premium class. So it’s still got very high resolution GPS tracking, but it’s also got a host of small improvements, like the ability to reroute you without cell service, the ability to start workouts during a ride, and voice controls for the entire computer.
This is an aggressively feature-rich computer, but almost all of those features are aimed at road and gravel riders. It’s clear that market is the Dura 2’s focus, and while it has mountain bike modes, very few, if any, of the computer’s updates are relevant off-road. That’s fine, but it does help set the tone for what COROS was going for here, and is right in line with the Dura 2’s updated aesthetic. 
However, the Dura 2 does have two features, one old and one new that I really dig for mountain biking. The old feature, that the original Dura had as well, is an integrated bike alarm. Set a PIN, swipe to set the alarm, and then leave your bike while you run into the shop to grab a donut. If someone moves your bike, a really obnoxious alarm sounds on the bike, and on your phone until you enter the correct PIN. It’s no substitution for storing your bike safely, but it is an awesome extra layer of protection of quick absences.
The second, new to the Dura 2 feature is so simple and so delightful. If you double tap the screen while riding, a charming bike bell chimes to alert other users of your presence. It’s a pleasing sound, and easy to use. I’m a huge fan and wish every bike computer had this.
I only got a few rides on the Dura 2, but they were enough to help me understand its strengths. If you use your bike computer to help you navigate a pre-selected route off the internet, especially a gravel or road route, it’s excellent. The screen is great, the interface is easy to use, and the computing is quick, helping you make every turn. If you’re a road or gravel rider, you’ll probably dig it. But for mountain biking I still think there’s a niche that’s not quite being hit. That sort of turn-by-turn navigation is pretty useless on the trail, and unless you’ve got Trailforks navigation (and only Garmin does) using a bike computer to navigate a complicated singletrack network gets old fast.
If you’re just using your computer to track your rides, not navigate, the Dura 2 does great, but also you can just use a COROS watch, like I’ve been doing for years. I still really like the COROS app, and its ability to spit out GPX files, and I still am firmly married to the COROS ecosystem, but I do think this new Dura 2 is much more aimed at roadies than mountain bikers.
My favorite feature of the original Dura is still excellent here though. The Dura 2 is very battery efficient and charges via solar power at a 2:1 ratio. What this means in practice is that my battery only ever goes down when I’m not riding. When I’m actually using the computer it does a great job of topping itself off. That feature alone bumps it to the top of my list. I’m a set-and-forget guy, and the Dura 2 hits that mark very well.
The Dura 2 (and just about every bike computer I’ve used) has one quirk that drives me crazy: It’s super car-brained. If I use the COROS app to navigate somewhere in town, it always spits out the most direct route for a car. For example, when I asked it to take me from the Freehub office to a restaurant downtown, it routed me onto busy streets the entire way even though there’s a great bike path and streets with protected bike lanes all the way there. When I started riding on the bike path, instead of the route it suggested, it did a great job of using its ability to reroute me while offline, but it used that power for evil, suggesting that I leave the bike path ASAP and hop on a busy thoroughfare. Even once I got off the path, onto the streets, it kept trying to re-route me onto the busiest streets, even though the quieter, more protected ones I chose were exactly as efficient.
I really, really wish the minds behind the navigational algorithms that bike computers use would put some effort into making sure the routes they spit out are actually bike-friendly. I’m lucky to live in a place with great cycling infrastructure. I wish the computer would help me use it. It’s stupid that choosing “cycling” on Google Maps gets me a safer route than this gadget whose entire purpose is centered around cycling.
The new COROS Dura 2 Solar is a legitimately cool piece of kit. It feels and looks super premium, and performs very well. But that performance is quite obviously aimed at road and gravel riders. If that’s the majority of your riding, and you want a computer that can also handle some singletrack, the Dura 2 Solar might just make you very happy.
Learn more: COROS 
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Following hot-on-the-heels of Rewilding Portugal, and backing up stiff opposition from local people and quite a few celebrities, several environmental organisations have spoken out today against the revised Sophia solar photovoltaic power station project (for the Beira Baixa) re-emphasising the mantra that the energy transition cannot be pushed through at the expense of Nature.
In a joint statement sent today to usa news agency, the Portuguese Society for the Study of Birds (SPEA), BirdLife, the Group for the Study of Spatial Planning and the Environment (GEOTA) and the League for the Protection of Nature (LPN) stress that, despite the reduction in the area occupied by solar panels, the revised project still presents significant environmental challenges.

One day after the second public consultation on the revised plan for the Sophia photovoltaic solar power station, covering the municipalities of Fundão, Idanha-a-Nova and Penamacor in Beira Baixa, Castelo Branco district, came to an end, environmentalists thus reaffirm their opposition to the construction of this solar power station that has prompted so much local opposition, backed by technical analysis.
They also highlight the need to protect holm oaks and cork oaks, preserve habitats, and safeguard ecological corridors that are vital to the region’s biodiversity.
According to SPEA-BirdLife’s analysis, the revised project could result in the felling or disruption of at least 2,473 holm oaks and cork oaks, including trees not accounted for by the developer along the perimeter fences. SPEA emphasised that experts estimate the felling of at least 1,646 protected trees, representing an increase of around 7 per cent compared with the previous project, despite the reduction in the area covered by solar panels.
Environmental NGOs also highlight one of the most significant concerns: loss of protected native trees, emphasisising that replacing them with new plantings “does not allow these functions to be restored within a timeframe equivalent to the power plant’s estimated 40-year lifespan”.

In September, the British multinational developer of the Sophia solar photovoltaic power station reduced the project’s installed capacity by 34% in the revised proposal it submitted to the Environmental Impact Assessment (EIA) authority.
“With regard to installed capacity, there is a 34% reduction, from 867 megawatts peak to around 573 megawatts peak. In this context, the project’s fenced-off area is reduced by 32%, and the number of fenced-off sections decreases from 44 to 22, a 50% reduction, Lightsource BP explained in information provided to Lusa news agency.
The initial project had an installed capacity of 867 megawatts peak.
The photovoltaic modules occupied 390 hectares, with 435 hectares including all infrastructure and a total fenced-off area of 1,734 hectares.
Environmentalists argue that, despite being a “smaller” power station, it still has “a huge ecological footprint”, as its site is part of the UNESCO Naturtejo World Geopark, situated in a region of high ecological value, between the International Tejo and the Malcata and Gardunha mountain ranges.
“The transformation of this landscape threatens the connectivity between natural areas and could jeopardise the survival of endangered species. Among the birds potentially affected are the Iberian imperial eagle and the white-bellied sand martin, both classified as critically endangered, as well as the black vulture, the Egyptian vulture and the black stork.”
According to the organisations that have signed the document, the project’s effects extend beyond biodiversity.
“The removal of vegetation, soil compaction and degradation, landscape alteration and the loss of land used for agricultural and forestry purposes will have consequences for local communities and for economic activities such as agriculture, farming and livestock rearing, and nature and cultural tourism,” they explain.
SPEA, BirdLife, GEOTA and LPN argue that renewable energy production is essential for combating climate change, but its siting must respect natural values and local communities.
“Priority should be given to areas that are already developed or degraded, preserving habitats of high ecological, landscape and geological value.”
This, however, very much like the project being fought relentlessly by locals in Covas do Barroso (Boticas municipality), is something that has had the government’s ‘blessing’, and thus it has been particularly complicated to counter.
Source material: LUSA

Journalist for the Portugal Resident.

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