How to: Power an electric bike with mobile or fixed solar panels – Cycling Electric

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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Core Development Group Marks 15-Year Anniversary as a National Leader in Energy Solutions – AOL.com

Core Development Group Marks 15-Year Anniversary as a National Leader in Energy Solutions  AOL.com
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Navitas Secures Up to USD 20 Mn from responsAbility for Solar Cell Manufacturing Expansion – Saur Energy

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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

T1 Energy receives waiver to import solar cells from Commerce By Investing.com  Investing.com UK
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Navitas Secures USD 20 Million Growth Capital from responsAbility, Plans 2.2 GW Solar Cell Facility – Energetica India Magazine

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.
October 22, 2026. By Mrinmoy Dey

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Construction boom in rural Wichita County takes toll on roads – Times Record News

Construction boom in rural Wichita County takes toll on roads  Times Record News
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From Cell Innovation to Module Design: YINGFA Brings Greater Flexibility to Module Makers at REI 2026 – SolarQuarter

From Cell Innovation to Module Design: YINGFA Brings Greater Flexibility to Module Makers at REI 2026  SolarQuarter
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Rwanda Tenders 200 MW Floating Solar + 800 MWh BESS on Lake Sake – News and Statistics – IndexBox

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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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Google supersizes PJM virtual power plant to more than 1 GW – Utility Dive

Google supersizes PJM virtual power plant to more than 1 GW  Utility Dive
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Aiko to convert PERC factory into 6 GW of ABC cell capacity – pv magazine Global

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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India Hosts Agrivoltaics World Conference 2026 – GK Today

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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A premium evolution. | COROS Dura 2 Solar – Freehub Magazine

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 
Snappy and powerful.
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NGOs unite to warn revised Sophia solar project still presents significant environmental challenges – Portugal Resident

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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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    TaiyangNews PV Price Index: CW42 2026 – TaiyangNews

    The TaiyangNews PV Price Index remained unchanged in Calendar Week 42, apart from the addition of a new module type.
    The polysilicon segment was flat week-on-week (WoW) but up 11.8% to 13.9% month-on-month (MoM).
    Wafer prices are down 4.1% to 5.6% MoM.
    Among cells, the Bifacial 210R TOPCon type is up 4.9% MoM, while the other two TOPCon types are down 2.0% and 5.2%.
    China Project Price (≥650W) debuts on the index this week, slotting in at the highest price among the China Project Prices.
    The two solar glass variants have remained unchanged since CW17.
    Despite the largely flat trend in recent weeks, prices remain above the lows seen earlier in the year. Year-to-date (YtD), price declines across segments have now been limited to a maximum of 25.8%, while the module category remains positive overall.
    The data refers to average product prices in China. The data was collected by Chinese market research firm Gessey PV Consulting.
    Disclaimer: TaiyangNews does not guarantee reliability, accuracy or completeness of this price index’ content. TaiyangNews does not accept responsibility or liability for any errors in this work.
    TaiyangNews 2024

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    PVH expands Houston footprint to scale pre-assembled solar trackers – pv magazine Global

    Solar tracker and foundation solution provider PV Hardware USA (PVH USA) has announced a major expansion of its original Houston, Texas, manufacturing facility. The expansion adds approximately 3,180 m2 of manufacturing space, increasing the company’s overall Houston footprint capacity by 42%. 
    The company said the added space will support a 35% increase in the production of pre-assembled tracker components. The move is designed to shift complex component assembly away from outdoor construction jobsites and into a controlled factory environment. 
    “We are investing in additional domestic manufacturing capacity because our customers are asking us to do more,” said Alfonso Queipo, CEO of PVH USA. “Pre-assembly has become an important part of that strategy because it allows us to move complexity out of the field and into an environment where we have greater control over quality, productivity and consistency.” 
    The project builds upon PVH USA’s growing footprint in Texas. In May 2024, the company invested $30 million to launch its first Houston facility, followed by the addition of a 95,000-square-foot tracker factory in September 2025. 
    Since 2023, PVH USA has focused on refining its pre-assembly model to streamline utility-scale installations and offset field labor shortages facing EPCs and developers. 
    According to the company, completing sub-assembly tasks in the factory before equipment is shipped to project sites offers significant operational advantages. This approach reduces the number of loose components delivered on-site by up to 70%, with approximately 188 loose parts per row assembled in the factory rather than in the field. As a result, field installation rates can improve by up to 44%.
    By shifting assembly work to a controlled factory environment, the company also reduces on-site labor requirements, improves project scheduling predictability, and minimizes workers’ exposure to adverse weather conditions, particularly during severe weather events or under tight project deadlines.
    “Solar EPCs face mounting pressure regarding labor availability, strict timelines and total project costs,” said Rodolfo Bitar, vice president of business development for PVH USA. “Traditionally, manufacturers pushed the assembly burden onto the jobsite. We ask a different question: what work can be done more efficiently before the equipment ever leaves the factory?” 
    In addition to site efficiency gains, PVH USA highlighted the sustainability and supply chain benefits of expanding domestic production in Texas. Localizing sub-assembly reduces the carbon emissions associated with long-haul international shipping while increasing domestic content compliance under U.S. clean energy incentive frameworks. 
    The company noted that steel accounts for more than 98% of the total weight of a PVH solar tracker system, enabling high end-of-life recyclability. 
    The expansion complements PVH’s existing terrain- and weather-resilient product portfolio, including its terrain-following AxoneDuo Infinity tracker (which accommodates up to 2 degrees of post-to-post slope variation) and its HazardPVH extreme weather mitigation software suite. 
    This content is protected by copyright and may not be reused. If you want to cooperate with us and would like to reuse some of our content, please contact: [email protected].
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    Navitas Raises Up To $20 Mn To Build 2.2 GW Solar Cell Facility – TradingView

    The investment is being made on behalf of responsAbility’s investors and is part of its Asia Climate Fund
    Navitas has secured growth capital of up to $20 million from Swiss impact asset manager responsAbility to support its expansion into solar cell manufacturing, including a planned 2.2 GW facility in India.
    The investment is being made on behalf of responsAbility’s investors and is part of its Asia Climate Fund. The capital will support Navitas’ backward integration strategy as it expands its presence across the domestic solar manufacturing value chain.
    Navitas currently operates across solar module and encapsulant manufacturing, engineering, procurement and construction (EPC), battery energy storage systems (BESS) and renewable power generation. The company also plans to expand into wafer and ingot manufacturing.
    Its entry into solar cell manufacturing comes as India seeks to increase domestic production across the solar supply chain and reduce dependence on imported components. Mumbai-based Centrum Capital’s Infrastructure Advisory arm acted as the exclusive financial adviser to Navitas for the transaction.
    Vineet Mittal, Director, Navitas, said, “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.”
    Solar Manufacturing Expansion
    Navitas manufactures Mono PERC and N-Type TOPCon solar modules ranging from 40 Wp to 720 Wp. The Surat-headquartered company was founded in 2013 and also operates across solar encapsulants, EPC, BESS and independent power production.
    The proposed 2.2 GW solar cell facility will deepen the company's backward integration, while its plans to enter wafer and ingot manufacturing could extend its presence further upstream in the solar supply chain.
    Kartik Jain, Head – Finance, Navitas Solar, said, “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.”
    responsAbility Expands India Clean-Energy Exposure
    responsAbility is a Swiss impact asset manager focused on private-market investments in emerging markets. Its existing India portfolio includes Ampin Energy Transition, August Energy and Euler Motors.
    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.”
    Vijay Menon, COO, Navitas Solar, said the company intends to focus on governance, environmental practices and responsible employment as it expands its manufacturing operations.
    Select market data provided by ICE Data Services. Select reference data provided by FactSet. Copyright © 2026 FactSet Research Systems Inc.Copyright © 2026, American Bankers Association. CUSIP Database provided by FactSet Research Systems Inc. All rights reserved. SEC filings and other documents provided by Quartr.© 2026 TradingView, Inc.

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    Australia pre-fab solar innovator 5B lands new 70 MW order, which could grow to 2 gigawatts – Renew Economy

    Friday, October 23, 2026
    Australian solar innovator 5B has landed a new order for 70 megawatts-worth of its pre-assembled, rapid-deploying solar units to supply the PV component of the shape-shifting Aurora Energy Precinct near Port Augusta in South Australia.
    Adelaide-based 5B, whose “Maverick” technology was first to receive funding from federal Labor’s $800 million Solar Sunshot program, on Thursday announced the “initial” purchase order from 1414 Degrees, the owner of the Aurora project.
    “5B will manufacture its prefabricated solar technology in North Adelaide and transport it to the site in the Upper Spencer Gulf Renewable Energy Zone,” the company said in a LinkedIn post.
    In its own release, the ASX listed 1414 Degrees says 5B’s technology was selected for its compact layout, which promises to accommodate more PV generating capacity per hectare, supporting the Aurora project’s potential for up to 2 gigawatts (GW) of solar capacity.
    “The initial deployment covers 42 hectares within Aurora’s approved 200-hectare solar development footprint,” the statement says.
    “The Company’s assessment indicates that the Maverick layout could accommodate more than 300 MW of solar PV capacity across that footprint, subject to detailed design and any required approval variations.
    “The Maverick layout supports the indicative precinct-wide potential of approximately 2 GW of solar PV capacity outlined in the Company’s 8 September 2026 announcement.”
    The 70 MW order is a significant one for 5B, although its biggest to date is a 140 MW order for the owners of the Kalgoorlie Super Pit gold mine in Western Australia.
    1414 Degrees (14D) announced in September that it had secured full control of the Aurora Energy Precinct by acquiring Vast Solar Aurora, one of a handful of subsidiaries of Vast Renewables, a concentrating solar power (CSP) hopeful that entered administration late last year.
    Aurora originally planned to host a 70 MW solar PV facility and a 150 MW solar tower with eight hours of molten salt storage, but its proponent, the US-based Solar Reserve, collapsed and the project moved under the ownership of SiliconAurora, a joint venture between concentrated solar power (CSP) developer Vast, and 14D.
    By 2024, the plans had changed again to a 140 MW, two hour (280 MWh) big battery and a much smaller 30 MW CSP plant with 288 MWh of thermal storage, co-located with a planned solar methanol demonstration project led by Vast and German integrated energy giant Mabanaft.
    14D has also proposed to use the site to pilot its silicon-based thermal energy storage system, or TESS-GRID technology, which it says can deliver electricity firming services to similar scale as a solar power tower project, offering up to eight hours of storage.
    But with Vast entering adminstration, 1414 Degrees progressed the 275kV transmission connection, identified a 33 kV development pathway, and signed a heads of agreement for the proposed development of up to 1 GW of AI data centre infrastructure.
    And this month the company completed acquisition of Vast Solar Aurora for $350,000, dissolving the previous JV structure and securing the ability to progress financing, commercial engagement, and staged development across the precinct.
    14D says the initial 70 MW solar development, using 5B Mavericks, will form part of Aurora’s Stage 1 grid-scale project, alongside the approved 140 MW / 280 MWh Battery Energy Storage System (BESS).
    “Placing this order is a further step towards delivery of Aurora’s initial 70 MW solar development,” 14D executive chair Kevin Moriarty said in a statement on Thursday.
    “The Maverick layout allows us to accommodate considerably more solar capacity within the available land, supporting staged expansion alongside storage, connection infrastructure and customer demand.
    “We are progressing power purchase agreements, infrastructure partnerships and financing for project delivery.”
    If you would like to join more than 29,000 others and get the latest clean energy news delivered straight to your inbox, for free, please click here to subscribe to our free daily newsletter.
    Sophie is editor of Renew Economy and editor of its sister site, One Step Off The Grid . She is the co-host of the Solar Insiders Podcast. Sophie has been writing about clean energy for more than a decade.
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    Livguard Plans Solar Panel & Cell Manufacturing in India – Rediff MoneyWiz

    Oct 22, 2026 18:16
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    Togo's Solar Industry Group Trains Installers, Plans Quality Label – Togo First

    (Togo First) – Solar installers and system integrators in Togo attended a training workshop on JinkoSolar’s latest photovoltaic technology in Lomé on October 20. Organized by the renewable energy industry association Synergie des acteurs des énergies renouvelables au Togo (SAER-Togo), the workshop is part of a broader effort to professionalize the sector.
    “One of SAER’s objectives is to professionalize the sector,” said its president, Serge Adote. The training focused on improving members’ installation, operation and maintenance skills using JinkoSolar’s Tiger Neo 3.0 panels, which are based on N-type tunnel oxide passivated contact (TOPCon) technology.
    Training Led by the Manufacturer
    According to Adama Cissé, JinkoSolar’s West Africa sales manager, the Tiger Neo 3.0 series can deliver up to 670 watts of power, with an annual degradation rate of less than 0.35%.
    Participants had the opportunity to ask technical and practical questions. Fhad Tchangbedji, technical director at KYA Energy Group, said the manufacturer’s involvement could make it easier for installers to source equipment for large-scale projects and reduce the need to maintain advance inventories.
    A Quality Label for Solar Companies
    The training is part of a strategy SAER announced in May during Energy Week in Lomé to improve standards among solar industry operators, notably through the creation of a SAER Label.
    Details have yet to be provided on the certification criteria, the body responsible for awarding the label, the launch timeline and any role public authorities might play in the initiative.
    Association Reports More Than CFAF 20 Billion in Revenue
    SAER’s 48 member companies generated combined revenue of more than CFAF 20 billion in 2025, according to Adote.
    The figures represent substantial growth over a relatively short period. In March 2025, SAER reported 38 member companies and combined revenue of CFAF 8 billion.
    Growing Need for Skills Amid Large-Scale Energy Projects
    The push to improve technical skills comes at a time when Togo is working to expand electricity generation and reduce its dependence on imports. The national electrification rate rose from 70% in 2024 to 75% in 2025, according to the Energy Ministry. The government aims to achieve universal electricity access by 2030.
    A solar power plant with planned capacity of 70 to 110 megawatts-peak (MWp) is under development in Nangbéto, marking the first phase of a 400 MWp program. In Dapaong, a separate 25 MWp solar project includes a planned 40 megawatt-hour (MWh) battery storage system.
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    REFORMS OVERVIEW
     
     
     
     
    STARTING A BUSINESS (more info)
    At the fifteenth position, worldwide, and first in Africa, under the Starting a Business index of the 2020 Doing Business ranking, Togo sustains its reformative dynamics with more reforms….
     
    ENFORCING CONTRACTS (more info)
    Compared to some years ago when it was one of the lowest rankers under the Doing Business’ Enforcing Contracts indicator, Togo, leveraging many efforts to improve its business climate, was able to jump significantly on the index in the recent years… .
    CONTRACT EXECUTION (more info)
    Creation of special chambers of commerce for small debts  • Creation of chambers of commerce at the Court of Appeal  • Civil and commercial cases now handled by distinct clerks  • Establishment of commercial courts in Lomé and Kara  • Lawyers and bailiffs now have access to the FORSETI COMMERCIAL platform • A maximum period of 100 days was fixed to settle a commercial dispute .
     
    TRADING ACROSS BORDERS (more info)
    In comparison to previous years,Togo has significantly improved its ranking under the“Trading across borders” indicator by adopting multiple reforms that focus mainly on the digitization and reduction in delays, for import and export procedures related to import and export.
    In comparison to previous years, Togo has significantly improved its ranking on the “Trading across borders” index by adopting multiple reforms that focus mainly on the digitalization and reduction in delays, for import and export procedures related to import and export.
     
    CONSTRUCTION PERMIT (more info)
    After moving from the 133rd to 127th place under the 2020 Doing Business’ construction permit index, Togo intends to reiterate this feat in the coming edition of the global ranking. To this end, it has introduced this year multiple reforms.
     
    GETTING ELECTRICITY (more info)
    Over the past two years, Togo’s ranking under the Doing Business’ Getting electricity and water indicator has increased consistently. Owing this performance to multiple reforms aimed at making it easier for businesses to access power and water, Lomé plans to introduce even more reforms this year to keep up its improvements.
     
    REGISTERING A PROPERTY  (more info)
    Out of all the ‘Doing Business’ indicators, Property Registration is where Togo has improved the most since 2018. Indeed, after spending years in the lowest part of this ranking, the country now seeks to beat Rwanda which is the best performer on this index in Africa. To do so, Lomé has been introducing many reforms, with the latest batch implemented this year.
     
    PUBLIC PROCUREMENT (more info)
    From professionalization to digitization, through legislative regulations, Togo’s public procurement framework is constantly being modernized. Several reforms have been implemented to improve the sector much to the benefit of the private sector, which is the focus of the National Development Plan.

     
    PAYING TAXES AND DUTIES (more info)
    To improve its business environment, Togo introduced some important reforms related to the payment of tax and duties. From the replacement of some taxes to the cancellation of others through exemptions, the country has only one objective: offer the most attractive tax framework to investors and economic operators. To achieve this, the authorities relied on digitization.
     
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    Perovskite Solar Cell Market Research, 4 GW Commercialization Partnership, Manufacturing Capacity and Technology Investments: Market Forecast, Pricing Trends and Business Opportunities – Yahoo Finance

    Perovskite Solar Cell Market Research, 4 GW Commercialization Partnership, Manufacturing Capacity and Technology Investments: Market Forecast, Pricing Trends and Business Opportunities  Yahoo Finance
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    Solar parks could more than double soil carbon in desert environments, study finds – pv magazine Global

    A research team in China has investigated how large-scale solar installations affect soil organic and inorganic carbon pools in desert environments, aiming to identify the main drivers of carbon accumulation and the threshold effects governing soil carbon dynamics. Soil organic carbon (SOC) helps retain water and nutrients, supporting vegetation growth, while soil inorganic carbon (SIC), stored mainly in carbonate minerals, represents a major carbon reservoir in arid regions.
    “The coupling of large-scale photovoltaic arrays with native ecosystems has formed photovoltaic ecosystems with unique energy and material exchanges, impacting key ecological processes like carbon cycling,” the researchers explained. “Deserts are a critical carbon pool with high ecological sensitivity; their stability is vital for the global carbon balance. However, disturbances from PV power stations may alter soil structure, resulting in the destabilization of carbon pools and changes in nutrient availability.”
    The researchers conducted field measurements in 2023 and 2024 at the Talatan photovoltaic power station on the northeastern edge of China’s Qinghai–Tibet Plateau. The 1 GW facility covers 67 km2 and sits at an average elevation of 2,910 meters. Soil sampling took place in March, August, and December to capture freeze-thaw, non-freezing, and freezing conditions, respectively.
    The team compared areas equipped with fixed, semi-tracking, and tracking mounting systems, selecting three random sampling points for each configuration. At each point, the researchers established 1 m × 1 m sampling plots beneath the panels, along their front drip lines, and between the arrays. They collected soil samples at depths of 0-10 cm, 10-20 cm, and 20-40 cm. Two nearby undisturbed desert plots served as control sites.
    The researchers measured soil moisture, temperature, and pH on site and analyzed composite soil samples for carbon content, nutrients, and particle-size distribution. They used statistical comparisons and random forest models to identify key environmental drivers, while structural equation modeling helped assess direct and indirect relationships. They also applied XGBoost and SHAP analysis to investigate nonlinear responses and threshold effects.
    “The results demonstrate that photovoltaic development significantly enhanced the carbon sink potential of desert soils, with the content of soil total carbon (STC) in the on-site area increasing by 125.89% compared to the off-site pristine control area,” the researchers said. “The content of soil carbon under the tracking bracket was higher than that under the semi-tracking bracket and fixed bracket, exhibiting a distinct under-panel enrichment effect.”
    The findings also showed that SIC content increased slightly with soil depth, while SOC content declined significantly, resulting in an overall decrease in total soil carbon. The researchers also identified a threshold effect in the relationship between soil carbon content and its main environmental drivers.
    “Notably, the response of STC to the dominant controlling factors exhibits a significant threshold effect: when STC content exceeds the critical threshold, its feedback to the dominant factors shifts from negative to positive,” they said.
    The findings are presented in “Threshold effects and driving mechanisms of desert photovoltaic power stations on soil carbon pools,” published in Environmental Technology & Innovation. The research team included scientists from China’s Xi’an University of Technology and the State Power Investment Group Qinghai Photovoltaic Industry Innovation Center.

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    YouTuber makes a fully working solar cell using household items — and there are instructions for making your own – TechRadar

    YouTuber makes a fully working solar cell using household items — and there are instructions for making your own  TechRadar
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    Hartek Power secures 80 MW solar EPC project worth Rs 200 crore – Manufacturing Today India

    Hartek Power secures 80 MW solar EPC project worth Rs 200 crore  Manufacturing Today India
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    Spanish region announce tax on ground mounted PV – pv magazine Global

    The Spanish region of Castilla y León plans to extend its environmental impact tax to large-scale photovoltaic installations from 2027 under a draft bill on tax, financial and administrative measures.
    The proposed reform would expand the scope of a tax currently applied to wind farms, hydroelectric reservoirs and high-voltage power lines. Fixed telecommunications networks would also become subject to the levy.
    According to the draft legislation, the changes are intended to reflect the evolution of economic activities in the region and ensure greater neutrality and fairness in the taxation of activities with similar economic objectives and potential environmental impacts.
    The bill identifies solar farms as installations that can affect landscapes, flora and fauna, occupy land and alter traditional land uses.
    The regional government justifies the proposed tax by invoking the European Union’s “polluter pays” principle. It also notes that Castilla y León is a net exporter of renewable electricity, meaning that local communities bear some of the environmental impacts associated with electricity generation for consumption elsewhere.
    Under the proposal, solar farms would be taxed according to the surface area they occupy. The tax liability would remain in place even after a facility ceases operating, until it has been fully dismantled and the site restored to its original condition.
    The draft legislation also sets out exemption criteria for certain self-consumption installations. Ground-mounted self-consumption systems occupying 5 hectares or more would qualify for an exemption only if the ratio of contracted power capacity during the P1 peak tariff period to installed generation capacity is at least 50%.
    If this threshold is not met, the authorities could determine that the installation’s primary purpose is to sell electricity to the grid, making it subject to the tax. Rooftop PV installations and ground-mounted systems occupying less than 5 hectares would be exempt.
    José Donoso, director general of Spanish solar association UNEF, described the proposed tax as “purely a revenue-raising measure and entirely unjustified,” arguing that solar installations already generate substantial tax revenue at national and local levels.
    UNEF said PV projects are subject to several taxes, including the tax on economic activities (IAE), the tax on the value of electricity production (IVPEE) and the special electricity tax (IEE), as well as municipal levies such as the construction, installations and works tax (ICIO) and property tax (IBI-BICES).
    According to the association, municipalities hosting solar farms receive approximately €10,000 ($11,232) per installed MW annually in tax revenue.
    UNEF also questioned the environmental justification for the levy, arguing that solar projects must already undergo environmental impact assessments before receiving approval from the relevant authorities. The association said imposing an additional tax on projects that have obtained favourable environmental assessments is unjustified.
    UNEF also raised concerns about how the revenue would be used. It argued that if the tax is intended to address the environmental and territorial impacts of solar installations, the proceeds should benefit the communities hosting the projects. However, according to the association, the draft legislation provides for the revenue to be incorporated into Castilla y León’s general budget rather than earmarked for affected municipalities.
    UNEF also criticised the proposal to calculate the tax according to the number of hectares occupied rather than the electricity generated. The association argued that a land-based levy would fail to account for differences in electricity production between solar installations across Castilla y León.
    Two solar farms occupying the same area could generate different amounts of electricity because of variations in solar irradiation, equipment efficiency and project design, but would face the same tax liability based on their land footprint, UNEF said.
    If approved, Castilla y León would become Spain’s third autonomous community to introduce a specific tax on PV installations, following Aragón and La Rioja. UNEF claimed that the proposed levy would be higher than those already imposed in the other two regions.
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    Renew Risk expands solar farm catastrophe modelling to all 48 contiguous US states – Reinsurance News

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    22nd October 2026 – Author: Taylor Mixides –

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    Renew Risk, a specialist provider of risk analytics for renewable energy and energy demand assets, has expanded its severe convective storm (SCS) modelling capabilities for solar farms to cover all 48 contiguous US states.
    The company says its model is the first in the United States designed specifically to assess the impact of severe convective storms on solar installations, enabling insurers to evaluate exposure to hail, tornadoes and straight-line winds across the mainland.
    The expansion, announced in London on 21 October 2026, comes amid continued growth in the US solar market. The US Energy Information Administration expects developers to add a record 43.4GW of utility-scale solar capacity in 2026, 60% more than in 2025.
    As the industry expands, Renew Risk is adapting its modelling to reflect changes in the size, location and technical design of solar installations. The company incorporates developments such as panel stow systems and tracking technology through seasonal model updates.
    The increasing scale and concentration of solar projects present additional challenges for insurers. Larger installations can require greater investment to build and repair, while the proximity of multiple sites can increase the potential for one storm to affect several assets within the same portfolio.
    Renew Risk points to hail as a particularly significant source of financial losses for solar operators and their insurers. A 2025 report by kWh found that hailstorms accounted for 6% of loss incidents at US solar farms but were responsible for 73% of financial losses.
    Renew Risk’s expanded model enables insurers, reinsurers and brokers to assess three key severe convective storm hazards across the contiguous United States. The company has developed its hazard modelling using a detailed dataset with a 1km resolution, alongside asset-level vulnerability assessments that consider factors including panel construction, tracker systems and stow logic. Seasonal updates allow Renew Risk to incorporate new information as solar installations are built in additional locations and adopt different technologies.
    According to Renew Risk, assessing severe convective storm exposure requires a different approach from modelling events such as hurricanes, which are often associated with low-frequency, high-intensity losses. Hailstorms can occur more frequently and cause damage across relatively small areas, making them difficult to assess using conventional catastrophe modelling approaches. Solar panels are particularly susceptible because they are largely constructed from glass, while limited historical claims data can make it harder to quantify potential losses, especially at remote sites.
    These considerations are relevant to solar farms located in Hail Alley, a region in the central United States known for frequent hailstorms. Renew Risk initially concentrated its hail modelling on states with the greatest exposure. However, the company also identified tornadoes and derechos as important sources of potential damage. Derechos are long-lived windstorms that can generate widespread straight-line winds and have contributed to significant insurance losses involving solar installations.
    Renew Risk cites the Midway Solar project, where losses were estimated at $70m, and Fighting Jays Solar Farm, where losses reached the $50m sublimit, as examples of significant severe convective storm claims. The expanded model now assesses hail, tornado and straight-line wind exposure within one framework across all 48 contiguous states.
    The company says its modelling draws on research papers authored by the Renew Risk team examining solar farm risk, alongside its work with Vāyuh. The latter combines physics-based methods and artificial intelligence to model severe convective storms. Renew Risk’s focus on renewable energy assets is intended to support updates that reflect the engineering characteristics and changing risk profiles of solar installations.
    Dr Joshua Macabuag OBE, Co-Founder and CEO of Renew Risk, commented: “Hail has rightly been the industry’s focus for solar, but many of the largest severe convective storm losses have been driven by tornadoes and straight-line winds. Insurers need to see all three perils together, across every state where they hold solar risk. That matters more as sites get bigger and closer together, because a single storm can now hit several assets in the same portfolio.
    “Specialising in energy transition assets means we can build faster than traditional providers, without compromising on accuracy. Extending our model across the contiguous US gives our clients a full view of storm risk across their US solar portfolios, and the confidence to grow them profitably.”
    The expanded capabilities are available through Renew Risk’s Global Onshore Renewables Product Suite. The company says insurers, reinsurers and brokers can use the offering to assess solar farm exposure to hail, tornadoes and straight-line winds throughout the US mainland.
    The launch also coincides with a revised structure for Renew Risk’s wider product portfolio. The company has organised its models, data and services into three product suites: Offshore Renewables, which covers offshore wind and interconnectors; Onshore Renewables, which includes solar; and Emerging Demand, which focuses on data centres. These offerings are supported by Renew Risk’s Global Intelligence Platform, which includes the Industry Exposure Database.
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    Solar Cells And Module Market To 2035: Utility Demand and N-Type Shift Fuel Expansion – News and Statistics – IndexBox

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    According to the latest IndexBox report on the global Solar Cells And Module market, the market enters 2026 with broader demand fundamentals, more disciplined procurement behavior, and a more regionally diversified supply architecture.
    The global market for solar cells and modules is entering a structurally different phase in the 2026-2035 forecast period, moving away from purely cost-driven commoditization toward a multi-tiered landscape shaped by technology leadership, supply chain control, and regional policy alignment. Solar cells and modules, the semiconductor devices that convert sunlight into electricity, remain the core building block of solar power systems, but the competitive logic around them is shifting.
    Advanced cell architectures, particularly TOPCon and, to a lesser extent, HJT and IBC, are transitioning from premium niches to mainstream production, widening the performance and cost-per-watt gap between technology leaders and laggards. At the same time, supply chain sovereignty has become a strategic pillar, with control over high-purity polysilicon, specialty solar glass, and silver paste now as consequential as manufacturing scale. Project economics increasingly hinge on levelized cost of electricity optimization, where module efficiency, bifacial gain, and degradation warranties directly affect financing terms and internal rates of return.
    Procurement is bifurcating between long-term strategic agreements in the utility segment and spot-price sensitivity in commercial and distributed channels. Geopolitical industrial policy, including local content requirements and trade measures, is fragmenting the market into regional blocs, forcing manufacturers toward local-for-local capital expenditure strategies. This report provides a structured, commercially grounded analysis of these dynamics, covering demand architecture, supply and value chain logic, pricing and unit economics, competitive structure, and geographic capability differences through 2035.
    The baseline scenario for the world solar cells and module market through 2035 anticipates continued expansion, supported by the mainstreaming of n-type cell technologies, ongoing utility-scale capacity additions, and policy-driven demand acceleration in key regions. The market is expected to grow at a compound annual growth rate of 8.2% over the forecast period, with the market index rising from 100 in 2025 to 220 by 2035. This baseline assumes no major demand-destroying macroeconomic shock and a gradual, rather than abrupt, resolution of current trade and industrial policy tensions.
    The strongest concrete driver is the rapid industrialization of TOPCon cell capacity, which offers a measurable efficiency uplift over p-type PERC with a more scalable manufacturing transition than HJT, supporting both capacity expansion and cost-per-watt reduction. Bifaciality and larger wafer formats are becoming standard, lifting module power output and improving project economics. Regionally, Asia-Pacific remains the dominant supply and demand hub, but local-for-local manufacturing strategies in North America, Europe, and parts of the Middle East and Africa are expected to add incremental capacity and shift trade flows.
    Pricing is likely to remain under pressure in commoditized segments, while technology-differentiated products and bankable Tier-1 supply command premiums. Risks to the baseline include policy uncertainty, supply chain bottlenecks in specialty materials, and faster-than-expected consolidation among laggard manufacturers.
    Utility-scale power generation is the largest and most structurally important end-use sector for solar cells and modules, accounting for the majority of global deployment. In this segment, demand is driven by developers, independent power producers, and utilities procuring modules for ground-mounted solar farms, often under long-term power purchase agreements. The procurement logic is dominated by levelized cost of electricity optimization, where module efficiency, bifacial gain, and degradation warranties have a direct and calculable impact on financing terms and internal rates of return.
    Through 2035, this segment is expected to shift further toward strategic, long-term agreements with integrated Tier-1 suppliers to secure bankability and supply certainty, even as spot pricing remains relevant for smaller developers. Demand-side indicators to watch include utility-scale project pipelines, auction volumes, PPA pricing, and grid interconnection queues. The mainstreaming of TOPCon and larger wafer formats supports higher power output per module, reducing balance-of-system costs and improving project economics. Co-location with energy storage is also beginning to influence module specification, as developers seek compatibility with high-voltage string inverters and hybrid project designs.
    Current trend: Growing share, driven by large-scale tenders and PPA-backed projects.
    Major trends: Shift toward long-term strategic agreements with Tier-1 suppliers for bankability, Increasing adoption of bifacial modules and larger wafer formats, Co-location with energy storage influencing module specification, and Policy-driven auction volumes and local content requirements shaping procurement.
    Representative participants: LONGi Green Energy Technology, JinkoSolar, Trina Solar, JA Solar, First Solar, and Canadian Solar.
    The commercial and industrial segment covers rooftop and ground-mount solar installations for businesses, factories, warehouses, and commercial real estate. Demand here is driven by corporate sustainability commitments, electricity cost reduction, and in some markets, regulatory mandates or incentives. Unlike the utility segment, C&I buyers are more sensitive to spot pricing and channel availability, and procurement often flows through distributors, EPCs, and installers rather than direct long-term agreements. Through 2035, this segment is expected to grow steadily as system costs decline and financing models such as power purchase agreements and leases mature.
    Demand-side indicators include commercial construction activity, corporate renewable energy targets, retail electricity prices, and the availability of financing. Module specification in this segment tends to favor standardized, bankable products with strong warranties, and there is growing interest in higher-efficiency modules where roof space is constrained. The segment is also increasingly influenced by local content and carbon footprint requirements, particularly in Europe and North America. Current trend: Steady growth, supported by corporate sustainability targets and falling system costs.
    Major trends: Growth of solar leasing and PPA models for commercial customers, Increasing demand for higher-efficiency modules where roof space is limited, Rising influence of corporate sustainability reporting requirements, and Channel consolidation among distributors and EPCs.
    Representative participants: JinkoSolar, Trina Solar, Canadian Solar, Hanwha Q Cells, and REC Group.
    Residential rooftop solar represents a significant and growing end-use sector, driven by homeowner demand for electricity bill savings, energy independence, and backup power. Demand in this segment is highly sensitive to retail electricity prices, financing availability, and policy incentives such as net metering and tax credits. Procurement typically flows through installers and distributors, with homeowners and installers favoring branded, warrantied modules that are easy to permit and install. Through 2035, the residential segment is expected to see moderate growth, with increasing attach rates for battery storage and smart energy management systems.
    Demand-side indicators include residential construction and renovation activity, retail electricity prices, household formation, and policy support levels. Module specification in this segment favors standardized sizes and power classes, with growing interest in aesthetics and higher efficiency for constrained roof spaces. The segment is also increasingly affected by utility rate design changes and the availability of third-party financing. Current trend: Moderate growth, with increasing attach rates for storage and policy support in select markets.
    Major trends: Growing attach rates of battery storage with residential solar, Increasing interest in aesthetic and higher-efficiency modules, Policy volatility around net metering and rate design, and Expansion of third-party financing and leasing models.
    Representative participants: Maxeon Solar Technologies, REC Group, Hanwha Q Cells, Canadian Solar, and JinkoSolar.
    The off-grid and remote power segment covers solar installations that are not connected to a main electricity grid, including rural electrification, telecom towers, remote industrial sites, and off-grid mining operations. Demand in this segment is driven by the need for reliable power in areas where grid extension is costly or impractical, as well as by declining costs of solar-plus-storage systems. Procurement often involves smaller, specialized distributors and integrators, and module specification favors durability and tolerance to harsh conditions over pure efficiency.
    Through 2035, this segment is expected to grow, particularly in Sub-Saharan Africa and parts of Asia-Pacific, supported by development finance and rural electrification programs. Demand-side indicators include electrification rates, telecom infrastructure investment, and mining and industrial activity in remote regions. The segment is also seeing growing interest in modular, plug-and-play systems that reduce installation complexity. Current trend: Niche but growing, particularly in emerging markets and remote industrial applications.
    Major trends: Growth of solar-plus-storage mini-grids for rural electrification, Increasing use of solar for telecom tower power, Development finance support for off-grid deployment, and Demand for durable, modular systems in harsh environments.
    Representative participants: Canadian Solar, JinkoSolar, Trina Solar, First Solar, and Risen Energy.
    The transportation and mobility segment is an emerging end-use sector for solar cells and modules, encompassing vehicle-integrated photovoltaics, solar-powered charging infrastructure, and solar applications in transport hubs such as ports and airports. Demand in this segment is currently small but is expected to grow as efficiency improvements and flexible module formats open new applications. Procurement is highly fragmented, involving automotive OEMs, infrastructure operators, and specialized integrators. Module specification in this segment favors lightweight, flexible, and aesthetically integrated solutions, which are still in early stages of commercialization.
    Through 2035, the segment is expected to see incremental growth, with demand-side indicators including electric vehicle adoption rates, investment in charging infrastructure, and policy support for transport decarbonization. The segment is also influenced by advances in vehicle-integrated PV efficiency and the availability of specialized module formats. Current trend: Emerging segment, with early adoption in vehicle-integrated and infrastructure applications.
    Major trends: Early adoption of vehicle-integrated photovoltaics by automotive OEMs, Growth of solar-powered EV charging infrastructure, Development of flexible and lightweight module formats, and Policy support for transport decarbonization.
    Representative participants: Maxeon Solar Technologies, Hanwha Q Cells, SunPower, First Solar, and LONGi Green Energy Technology.
    Interactive table based on the Store Companies dataset for this report.
    Asia-Pacific remains the largest market and manufacturing base for solar cells and modules, led by China, India, and Southeast Asia. The region benefits from integrated supply chains, scale economies, and strong domestic demand. Through 2035, local-for-local policies in other regions may shift some trade flows, but Asia-Pacific is expected to retain a dominant share. Direction: Dominant supply and demand hub, with continued capacity expansion.
    North America is experiencing strong demand growth, supported by federal incentives and corporate procurement. Local content requirements and trade measures are driving investment in domestic module assembly and cell capacity, though reliance on imported cells and materials remains significant. The region is expected to increase its share modestly through 2035. Direction: Growing demand with local manufacturing build-out.
    Europe is a major demand center, with ambitious renewable energy targets and strong corporate procurement. Policy focus on supply chain resilience and local manufacturing is driving investment in European module production, though cost pressures and competition from imports remain challenges. The region is expected to see steady growth through 2035. Direction: Policy-driven demand with focus on supply chain resilience.
    Latin America is an emerging growth market for solar cells and modules, driven by favorable irradiation, auction mechanisms, and distributed generation policies in countries such as Brazil and Chile. Demand is expected to grow steadily through 2035, though financing constraints and policy volatility may temper the pace of expansion. Direction: Emerging growth market, led by Brazil and Chile.
    The Middle East and Africa region is growing from a small base, with utility-scale tenders in the Gulf and off-grid demand in Sub-Saharan Africa. Favorable irradiation and declining costs support expansion, though political and economic instability in some markets poses risks. The region is expected to see incremental growth through 2035. Direction: Growing from a small base, with utility-scale and off-grid demand.
    In the baseline scenario, IndexBox estimates a 8.2% compound annual growth rate for the global solar cells and module 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 Solar Cells And Module market report.
    This report is an independent strategic market study that provides a structured, commercially grounded analysis of the global market for Solar Cells and Module. 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 component, 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 Solar Cells and Module as Semiconductor devices that convert sunlight directly into electricity, manufactured as individual cells and assembled into modules (panels) for integration into solar power systems 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 Solar Cells and Module 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 Grid-connected solar farms, Commercial rooftop installations, Residential solar systems, Industrial self-consumption projects, Off-grid electrification, and Solar-powered consumer electronics and mobility across Power Generation (Utilities/IPPs), Commercial Real Estate, Industrial Manufacturing, Residential Construction, Telecommunications, and Public Infrastructure and Technology R&D and Pilot Lines, Capacity Planning and CAPEX Deployment, Supply Chain Sourcing and Qualification, Manufacturing Process Optimization, Quality Assurance and Certification, Sales Channel and Distribution Setup, and Project Design and System Integration. 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, Silicon Wafers (Mono Grown, Cast Multi), Solar Glass, Encapsulation Materials (EVA, POE), Backsheets, Frames (Aluminum), Silver Paste & Conductive Adhesives, and Specialty Gases and Chemicals, manufacturing technologies such as Passivated Emitter and Rear Cell (PERC), Tunnel Oxide Passivated Contact (TOPCon), Heterojunction Technology (HJT), Interdigitated Back Contact (IBC), Bifacial Module Design, Half-Cell and Shingled Cell Interconnection, and Advanced Module Encapsulation and Framing, 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 Solar Cells and Module 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 Solar Cells and Module. 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
    Major R&D in PERC and HJT technologies
    High-volume N-type TOPCon producer
    Vertex series modules, 210mm wafer size
    Strong in PERC and n-type technologies
    Vertically integrated, strong project pipeline
    Major US producer, strong utility-scale focus
    Major US manufacturing expansion
    Specializes in heterojunction (HJT) technology
    Maxeon spin-off manufactures IBC technology
    Major supplier of cells to module makers
    Rapidly growing n-type capacity
    Part of Chint Group conglomerate
    Owned by Reliance Industries (India)
    Strong international sales network
    Significant production in Vietnam
    Former industry leader, now part of Shunfeng
    Exiting module business in 2022
    Key player in India's domestic supply
    Significant domestic and export capacity
    Part of GCL Group polysilicon conglomerate
    Aiming for large-scale vertical integration
    Shifting to own-brand module production
    Focus on premium rooftop segment
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    Saatvik Green Energy launches high-efficiency TOPCon 3.0 solar module – scanx.trade

    Saatvik Green Energy launches high-efficiency TOPCon 3.0 solar module  scanx.trade
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    Dry Type Automated Solar Panel Cleaning Market To 2035: Water Scarcity Drives Robotic Cleaning Demand – News and Statistics – IndexBox

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    According to the latest IndexBox report on the global Dry Type Automated Solar Panel Cleaning market, the market enters 2026 with broader demand fundamentals, more disciplined procurement behavior, and a more regionally diversified supply architecture.
    The global market for Dry Type Automated Solar Panel Cleaning is entering a phase of accelerated commercial adoption as solar asset owners confront the financial materiality of soiling losses and the operational constraints of water-based cleaning. Dry type automated systems, which include robotic, drone, and electrostatic technologies, offer a water-free alternative that is particularly suited to arid and semi-arid regions where water availability is limited and costly.
    The market is transitioning from a niche, high-cost solution to a core operational expenditure optimization tool, driven by the need for predictable OPEX, enhanced energy yield predictability for PPA compliance, and asset value preservation. Technology differentiation is moving beyond basic mechanical cleaning to integrated systems combining robotics, soiling sensors, and predictive analytics, creating a hardware-software-service stack. System integration with diverse tracker systems and site SCADA is a key commercial bottleneck, favoring vendors with deep engineering partnerships.
    The competitive landscape is fragmenting into pure-play robotic OEMs and integrated solar O&M service providers, with procurement evolving from CAPEX purchases to performance-based service agreements. Regulatory tailwinds around water conservation and drone operations are becoming significant non-tariff barriers and opportunities. The long-term trajectory is tied to global solar expansion in water-stressed regions, making this a leveraged play on solar growth with added operational intensity.
    This report provides a structured analysis of deployment demand, technology positioning, manufacturing exposure, safety and qualification burden, project economics, and competitive structure, with historical coverage from 2012 to 2025 and forward-looking scenarios through 2035.
    The baseline scenario for the Dry Type Automated Solar Panel Cleaning market anticipates robust expansion over the forecast period 2026-2035, underpinned by the global build-out of utility-scale solar capacity in water-stressed regions and the growing recognition of soiling as a material driver of levelized cost of energy. As solar portfolios age and performance guarantees tighten, asset owners are shifting from reactive, labor-intensive cleaning to automated, data-driven solutions that ensure consistent yield and reduce water consumption. The market is expected to grow at a compound annual growth rate of 15.2% from 2026 to 2035, reaching a market index of 410 by 2035 (2025=100).
    This growth is not uniform; adoption is concentrated in arid and semi-arid areas with high particulate soiling, such as the Middle East, North Africa, parts of India, Australia, and the southwestern United States, where water costs and scarcity are acute. In these regions, dry cleaning systems are becoming the default choice for new utility-scale projects, supported by declining hardware costs and the maturation of robotics and drone technologies. The commercial model is also evolving, with performance-based service agreements gaining traction, particularly among large independent power producers and utilities that seek to transfer technology risk and align incentives with energy yield.
    However, the market faces headwinds from high upfront capital costs, integration complexities with existing tracker systems, and a fragmented competitive landscape that can confuse procurement decisions. Nevertheless, the long-term outlook remains positive, driven by the inevitable expansion of solar in harsh environments and the increasing financialization of solar assets, which demands predictable operations and maintenance costs.
    Utility-scale solar farms represent the largest and fastest-growing end-use sector for dry type automated solar panel cleaning. These installations, often located in arid and semi-arid regions with high solar irradiance, face significant soiling losses that can reduce energy yield by 1-2% per day without cleaning. Traditional water-based cleaning is increasingly impractical due to water scarcity, high costs, and logistical challenges. Dry automated systems, particularly robotic cleaners that traverse panel rows, offer a scalable solution that ensures consistent yield and reduces O&M costs. The demand is driven by the need to meet PPA performance guarantees, optimize LCOE, and preserve asset value for project finance.
    As the global utility-scale solar fleet expands, especially in the Middle East, India, Australia, and the Americas, the adoption of dry cleaning systems is expected to accelerate, with a growing share of new projects incorporating automated cleaning as standard. The trend is toward integrated systems with soiling sensors and predictive analytics, enabling condition-based cleaning schedules that further reduce costs. Current trend: Rapid adoption driven by large addressable area and water constraints.
    Major trends: Shift from manual to robotic cleaning for large-scale plants, Integration of soiling sensors and predictive analytics, Performance-based service agreements gaining traction, Waterless cleaning mandated in water-stressed regions, and Declining hardware costs and improved ROI.
    Representative participants: Ecoppia Scientific, Airtricity, SolarCleano, SunPower, and ABB.
    The commercial and industrial solar sector is increasingly adopting dry type automated cleaning solutions to maintain energy yield and reduce operational costs. C&I installations, often on rooftops or limited land areas, face soiling challenges that can impact savings and payback periods. While manual cleaning is common, it poses safety risks and can be infrequent, leading to yield losses. Automated dry cleaning systems, including smaller robots and drones, offer a safer and more consistent alternative. Demand is driven by the need for predictable energy generation to offset electricity bills and meet sustainability targets.
    As C&I solar grows in regions with high dust and water scarcity, such as the Middle East and parts of Asia, the adoption of automated cleaning is expected to rise. However, cost sensitivity remains a barrier, favoring solutions with lower upfront costs and modular designs. The trend is toward service-based models where third-party providers offer cleaning as a service, reducing capital burden for C&I owners. Current trend: Growing adoption as C&I owners seek OPEX predictability.
    Major trends: Safety concerns driving automation on rooftops, Service-based models reducing upfront costs, Modular and scalable robotic solutions, Integration with building management systems, and Focus on ROI and payback periods.
    Representative participants: SolarCleano, Ecoppia Scientific, DroneDeploy, Aerones, and BladeBUG.
    Residential solar represents a small but emerging end-use sector for dry type automated solar panel cleaning. Homeowners typically rely on manual cleaning or ignore soiling, but as residential systems grow in size and energy independence becomes a priority, the need for efficient cleaning is rising. Dry automated solutions for residential use are primarily small robots or drones that can clean rooftop panels without water, addressing safety and convenience concerns. Demand is driven by homeowners in dusty regions seeking to maximize energy production and protect their investment. However, high costs relative to system size and limited awareness restrain widespread adoption.
    The trend is toward affordable, user-friendly robotic cleaners that can be scheduled via smartphone apps. As technology matures and prices decline, the residential segment is expected to grow, particularly in markets with high electricity rates and abundant sunshine. Current trend: Emerging niche with limited but growing adoption.
    Major trends: Smart home integration and app-controlled cleaning, Affordable small-scale robots, DIY cleaning solutions gaining popularity, Focus on convenience and safety, and Growing awareness of soiling impact.
    Representative participants: SolarCleano, Ecoppia Scientific, BladeBUG, and Aerones.
    Off-grid and remote solar installations, such as those powering telecommunications towers, mining operations, and rural electrification, present a compelling use case for dry type automated solar panel cleaning. These sites often lack access to water and face high labor costs for manual cleaning, making automated solutions economically attractive. Soiling can significantly reduce output, jeopardizing critical power supply. Dry cleaning systems, including robotic and drone-based solutions, enable regular cleaning without water or on-site personnel, improving reliability and reducing O&M expenses. Demand is driven by the need for uninterrupted power and the high cost of sending crews to remote locations.
    The trend is toward autonomous, solar-powered cleaning robots that can operate unattended for extended periods. As off-grid solar deployment grows in remote and harsh environments, this segment is expected to expand, albeit from a small base. Current trend: Critical for remote assets where labor logistics are costly.
    Major trends: Autonomous, solar-powered cleaning robots, Drone-based cleaning for difficult-to-access sites, Remote monitoring and control, Integration with energy storage systems, and Focus on reliability and uptime.
    Representative participants: Ecoppia Scientific, Airtricity, DroneDeploy, and Aerones.
    Other end-use sectors, including floating solar and agrivoltaics, represent niche but potentially significant applications for dry type automated solar panel cleaning. Floating solar installations face soiling from bird droppings and airborne particles, and water-based cleaning is often impractical due to environmental regulations. Dry cleaning robots adapted for floating platforms are emerging. Agrivoltaics, where solar panels coexist with agriculture, may require cleaning that avoids water and chemicals to protect crops, making dry methods attractive. Demand in these segments is driven by specific operational constraints and environmental considerations.
    The trend is toward customized solutions that address the unique challenges of these installations, such as lightweight robots for floating platforms and gentle cleaning for agrivoltaic systems. As these solar applications grow, the demand for specialized dry cleaning solutions is expected to increase, though the volumes will remain small compared to utility-scale. Current trend: Niche applications with specialized cleaning needs.
    Major trends: Adaptation of robots for floating solar, Gentle cleaning for agrivoltaics, Environmental compliance driving waterless methods, Customized solutions for niche applications, and Pilot projects and early adoption.
    Representative participants: SolarCleano, Ecoppia Scientific, Aerones, and BladeBUG.
    Interactive table based on the Store Companies dataset for this report.
    Asia-Pacific dominates the market, driven by massive solar capacity in India, Australia, and China, coupled with severe water scarcity and high soiling rates. India’s ambitious solar targets and water constraints make dry cleaning essential. Australia’s remote, arid solar farms also drive adoption. The region is expected to maintain the largest share, with a CAGR of 16.5% through 2035. Direction: Leading growth.
    North America, particularly the southwestern United States, is a significant market due to large utility-scale solar farms in arid regions like California, Arizona, and Nevada. Water scarcity and strict regulations favor dry cleaning. The region is expected to grow steadily, with increasing adoption of robotic systems and performance-based service contracts. Direction: Steady growth.
    Europe’s market is driven by solar expansion in southern countries like Spain and Italy, where soiling and water costs are concerns. However, lower soiling rates compared to arid regions and higher labor costs may slow adoption. The region is expected to grow moderately, with a focus on innovative technologies and sustainability. Direction: Moderate growth.
    Latin America, with solar growth in Chile, Brazil, and Mexico, presents emerging opportunities. Arid regions in Chile and Mexico face water scarcity, driving demand for dry cleaning. The region is expected to grow at a healthy pace, supported by increasing solar investments and the need for efficient O&M. Direction: Emerging growth.
    The Middle East & Africa region is a hotspot for dry cleaning due to extreme water scarcity and high soiling from dust. Countries like Saudi Arabia, UAE, and South Africa are investing heavily in solar, and dry cleaning is often the only viable option. The region is expected to grow rapidly, with a CAGR of 18% through 2035, driven by large-scale projects and regulatory support for water conservation. Direction: Rapid growth.
    In the baseline scenario, IndexBox estimates a 12.0% compound annual growth rate for the global dry type automated solar panel cleaning market over 2026-2035, bringing the market index to roughly 410 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 Dry Type Automated Solar Panel Cleaning market report.
    This report is an independent strategic market study that provides a structured, commercially grounded analysis of the global market for Dry Type Automated Solar Panel Cleaning. 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 solar O&M and performance optimization 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 Dry Type Automated Solar Panel Cleaning as Automated, water-free systems for cleaning solar PV panels to maintain optimal energy output, using robotic, drone, or electrostatic technologies 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 Dry Type Automated Solar Panel Cleaning 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 Soiling loss mitigation in arid environments, Water conservation in water-stressed regions, Labor cost reduction in remote sites, Performance guarantee (PR) compliance, and Asset value preservation for project finance across Independent Power Producers (IPPs), Utility-owned solar assets, Commercial & Industrial (C&I) self-consumption, and Solar park operators and asset managers and Feasibility & Soiling Analysis, System Design & Integration, Installation & Commissioning, O&M Service Contracting, and Performance Data Validation. Demand is then allocated across end users, development stages, and geographic markets.
    Third, a supply model evaluates how the market is served. This includes Aluminum/Stainless Steel Frames, Brush Components, Motors & Drives, IoT Modules & Sensors, and Control Software, manufacturing technologies such as Robotics & Autonomous Navigation, Brush & Air-knife Mechanisms, Electrostatic Dust Removal, IoT & Fleet Management Software, and Soiling Sensors & Predictive Analytics, 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 Dry Type Automated Solar Panel Cleaning 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 Dry Type Automated Solar Panel Cleaning. 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
    Major utility-scale provider
    Focus on arid environments
    Strong in Indian market
    Specializes in water-free tech
    Integrated solutions provider
    Offers specialized cleaning services
    Offers cleaning as part of O&M
    Provides automated cleaning solutions
    Offers automated cleaning options
    Strong in Asian markets
    Integrated cleaning solutions
    Develops automated cleaning tech
    Focus on large-scale PV plants
    Offers drone-based solutions
    Produces automated systems
    European market focus
    Provides automated solutions
    Residential & commercial focus
    Offers automated cleaning
    Market entrant
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    Perovskite Solar Cell Market Research, 4 GW – GlobeNewswire

    Perovskite Solar Cell Market Research, 4 GW  GlobeNewswire
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    Germany’s RENA & India’s Growel Announce Solar Equipment JV – TaiyangNews

    RENA and Growel plan to manufacture and service solar wet processing equipment in India from early 2027
    The JV aims to reduce India’s reliance on imported equipment, primarily sourced from Germany and China at present
    It will cover the development, manufacturing, assembly, sale, and servicing of wet chemical processing equipment, additives, and related PV technologies
    German solar equipment manufacturer RENA Technologies and Indian industrial company Grauer & Weil India Limited (Growel) have announced plans for a joint venture (JV) in India to manufacture and service wet chemical processing equipment for the solar PV industry.
    The partnership aims to strengthen local manufacturing capabilities and reduce reliance on imported equipment, with operations expected to begin in early 2027. 
    Currently, India depends on imported advanced wet processing equipment, sourced primarily from Germany and China. The partners claim that the JV will boost productivity and competitiveness of solar manufacturers in India.
    Wet chemical processing is a step in solar cell manufacturing where silicon wafers are treated with chemical solutions to remove surface damage, clean the wafers, and create textured surfaces that reflect less sunlight. These treatments help prepare wafers for subsequent manufacturing steps and are used in technologies such as TOPCon, HJT, and back-contact solar cells.
    Under the memorandum of understanding (MoU), RENA will contribute its proprietary technology, while industrial surface-finishing expert Growel brings its experience of the Indian industrial landscape to the JV.
    RENA Technologies COO Sebastian Kress said a local manufacturing setup will enable local service for this tool within India and expand its presence in this growing market.
    The German company has been steadily growing its clientele in the Indian market. Earlier this year, it bagged a 1.2 GW TOPCon wet processing equipment order from CELLORAA Energy, and a 6 GW TOPCon solar cell production equipment order from India’s EMMVEE.
    Recently, EMMVEE reported achieving up to 25.4% efficiency for M10 TOPCon cells using equipment from RENA, centrotherm, and halm (see EMMVEE Achieves 25.4% TOPCon Solar Cell Efficiency).
    The partnership comes as India looks to build domestic capabilities in solar manufacturing equipment, an area where it remains reliant on imports. A May 2026 report by CEEW identified imported machinery and dependence on foreign technical expertise as challenges for Indian solar cell manufacturers, recommending support for local equipment production.
    RENA is among the participating companies in TaiyangNews Market Survey on Solar Cell Production Equipment 2025 (see RENA Systems For Single-Side Etching & Edge Isolation).
    TaiyangNews 2024

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    R.Power to energise 20-MWp German solar farm in Nov – Renewables Now

    Renewables Now is a leading business news source for renewable energy professionals globally. Trust us for comprehensive coverage of major deals, projects and industry trends. We’ve done this since 2009.
    Stay on top of sector news with with Renewables Now. Get access to extra articles and insights with our subscription plans and set up your own focused newsletters and alerts.

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    PVH USA Expands Houston Solar Tracker Manufacturing by 42% – News and Statistics – IndexBox

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    PV Hardware USA, a supplier of solar trackers and foundation systems, has revealed a substantial enlargement of its initial manufacturing site in Houston, Texas. The project introduces around 3,180 square meters of production area and lifts the company’s total Houston footprint capacity by 42%.
    According to the company, the additional space will underpin a 35% rise in output of pre-assembled tracker components. The initiative aims to relocate intricate component assembly from outdoor construction sites into a controlled factory setting.
    Alfonso Queipo, CEO of PVH USA, stated that the firm is putting money into extra domestic manufacturing capacity in response to customer demand for more, and he called pre-assembly a key element of that approach because it shifts complexity off the field and into a setting where quality, productivity and consistency can be managed more closely.
    The project extends PVH USA’s expanding presence in Texas. The company spent $30 million in May 2024 to open its first Houston facility, then added a 95,000-square-foot tracker factory in September 2025.
    Since 2023, PVH USA has concentrated on honing its pre-assembly model to simplify utility-scale installations and counter field labor shortages confronting EPCs and developers.
    Per the company, finishing sub-assembly work in the factory before equipment is dispatched to project sites delivers meaningful operational benefits. This method cuts the quantity of loose components arriving on-site by as much as 70%, with roughly 188 loose parts per row put together in the factory instead of in the field. Consequently, field installation rates can rise by up to 44%.
    By relocating assembly work to a controlled factory setting, the company also lowers on-site labor needs, enhances project scheduling predictability, and curtails workers’ exposure to harsh weather conditions, especially during severe weather events or when project deadlines are tight.
    Rodolfo Bitar, vice president of business development for PVH USA, said solar EPCs are under mounting pressure over labor availability, strict timelines and total project costs, and he observed that manufacturers have historically shifted the assembly burden to the jobsite while the company instead asks what work can be completed more efficiently before equipment departs the factory.
    Alongside site efficiency gains, PVH USA emphasized sustainability and supply chain advantages of growing domestic production in Texas. Localizing sub-assembly curtails carbon emissions linked to long-haul international shipping while boosting domestic content compliance under U.S. clean energy incentive frameworks.
    The company observed that steel makes up more than 98% of the total weight of a PVH solar tracker system, allowing high end-of-life recyclability.
    The expansion dovetails with PVH’s existing terrain- and weather-resilient product lineup, including its terrain-following AxoneDuo Infinity tracker, which handles up to 2 degrees of post-to-post slope variation, and its HazardPVH extreme weather mitigation software suite.
    Interactive table based on the Store Companies dataset for this report.
    This report provides an in-depth analysis of the Solar Trackers market in the United States, covering market size, growth trajectory, demand structure, supply capability, trade flows, pricing, competitive landscape, and forecast to 2035.
    The study is designed for manufacturers, distributors, importers, exporters, investors, procurement teams, advisors, and strategy teams that need a consistent, data-driven view of market dynamics and a transparent analytical definition of the product scope.
    This report covers solar trackers, which are electromechanical systems that orient photovoltaic panels or mirrors to follow the sun’s path, maximizing energy capture. The analysis encompasses the market for both single-axis and dual-axis trackers, including horizontal, vertical, tilted, and azimuth variants. It examines their integration across utility-scale, commercial, industrial, agricultural, and specialized installations, providing a comprehensive view of the product segment within the broader solar energy industry.
    The report combines the standard market-statistics backbone with strategic chapters that are useful for commercial planning, sourcing decisions, market entry, competitor monitoring, and portfolio prioritization.
    The market is segmented into decision-relevant buckets so that demand drivers, pricing logic, supply constraints, and competitive positions can be compared across the same analytical frame.
    Solar trackers are not uniquely classified under a single dedicated Harmonized System (HS) code, as they are complex electromechanical assemblies. Consequently, trade data for this market must be aggregated from multiple codes representing their constituent parts and related electrical equipment. This report’s analysis utilizes relevant codes for electric generating sets, machinery parts, diodes/transistors, and electrical control apparatus to construct a representative view of the trade flows for tracker components and integrated systems.
    Coverage focuses on United States and includes demand, supply capability where present, trade flows, pricing, competition, and outlook.
    The report combines official statistics, trade records, company disclosures, product-level evidence, and analyst validation. Data are standardized, reconciled, and cross-checked to keep market sizing, trade flows, pricing, and forecasts comparable across countries and time periods.
    All indicators are mapped to a consistent product definition and reviewed against the segmentation framework used in the Table of Contents.
    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
    Who Wins and Why
    How the Domestic Market Works
    Commercial Entry and Scaling Priorities
    Where the Best Expansion Logic Sits
    Leading Players and Strategic Archetypes
    How the Report Was Built
    Supplies NX Horizon tracker systems for large solar projects.
    Its DuraTrack system uses a centralized drive architecture.
    Offers the Genius Tracker system for utility-scale projects.
    Manufactures its trackers in the United States.
    Produces tracker components at U.S. manufacturing facilities.
    Its Voyager system uses a 1P tracker configuration.
    Offers tracker and foundation solutions through one supplier.
    Supplies its Convert single-axis solar tracker.
    Its system is designed to follow uneven terrain.
    Offers SkyLine and SkySmart tracker product lines.
    Supplies the Horizon L:TEC tracker platform.
    Offers its Axone single-axis tracker.
    Supplies Vanguard and Agile tracker systems.
    Offers single-axis tracker products for U.S. projects.
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    Solar farm coming to former coal mine site in Wise County – SuperTalk 92.9

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    A new era of energy production is coming to Southwest Virginia next month. The Nature Conservancy and TerraForm Power are breaking ground this November on Wildcats Solar, a 10-megawatt solar farm built on a former coal mining site in Wise County. The 70-acre project in Pound specifically repurposes flat, reclaimed mine land to avoid cutting down forests. Local officials say the project will inject new tax revenue into the county, boost the Cumberland Forest Community Fund, and generate local construction jobs. Once completed, the clean energy will plug directly into the grid for Appalachian Power customers.
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    T1 Energy announces Department of Commerce waiver allowing cell imports – pv magazine USA

    Texas-based T1 Energy has announced it has received a waiver from the Department of Commerce that will allow the company to import up to 1.725 GW of solar cells to supply its module assembly operations in Wilmer, Texas, just south of Dallas. 
    The waiver allows the company to meet its supply needs without fear of punishment for stockpiling solar materials under the Trump administration’s Section 232 tariffs, set to take effect on Dec. 4, 2026. On that date, incoming shipments of polysilicon and silicon-based solar products will become subject to a 15% tariff alongside minimum import prices established in the order.
    Ahead of that deadline, the Department of Commerce’s Bureau of Industry and Security issued an emergency rule outlining criteria it would use to determine evidence of stockpiling, set import prohibition penalties for noncompliance and establish a process for companies to obtain a waiver. 
    T1 Energy says its waiver request would supply it with the raw materials it needs to continue operations at its module facility while it completes construction on its G2_Austin solar cell fabrication facility, set to begin producing cells in the first quarter of 2027 in the Austin suburb of Rockdale.
    “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 T1 Energy CEO Dan Barcelo, in a statement. “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.”
    While other importers of solar materials have likely submitted similar waiver requests, T1 Energy appears to be the first company to publicly disclose receipt of such a waiver.
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    Combiner Boxes for Solar Installations Market Forecast to 2035 on Utility-Scale Solar Demand – News and Statistics – IndexBox

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    According to the latest IndexBox report on the global Combiner Boxes for Solar Installations market, the market enters 2026 with broader demand fundamentals, more disciplined procurement behavior, and a more regionally diversified supply architecture.
    The global market for combiner boxes for solar installations is entering a phase of sustained expansion, underpinned by the accelerating deployment of utility-scale and commercial solar photovoltaic capacity worldwide. Combiner boxes play a critical role in PV systems by aggregating multiple string circuits into a single output, providing overcurrent and surge protection, and enabling safe isolation. As solar installations grow in scale and complexity, demand for advanced combiner boxes with integrated monitoring, rapid shutdown, and arc-fault detection is rising.
    The market is also being reshaped by the transition from 1000 V to 1500 V system architectures, which requires new combiner box designs capable of handling higher string voltages. This report provides a comprehensive analysis of the world combiner boxes for solar installations market, covering historical data from 2012 to 2025 and a forecast to 2035. It examines market size, demand structure, supply chain dynamics, pricing trends, and the competitive landscape. The study segments the market by product type, application, and end-use sector, offering actionable insights for manufacturers, EPC contractors, investors, and procurement teams.
    Key trends include the growing share of smart combiner boxes, increasing import dependence in North America and Europe, and the rising importance of after-sales service and retrofit opportunities. The report also profiles major companies and provides regional outlooks for Asia-Pacific, North America, Europe, Latin America, and the Middle East & Africa.
    The baseline scenario for the world combiner boxes for solar installations market anticipates steady growth through 2035, with global demand expanding at a compound annual growth rate of 7.2 percent. This outlook is supported by the continued build-out of utility-scale solar farms, particularly in Asia-Pacific and North America, where cumulative PV capacity additions are expected to remain robust. The market index, set at 100 in 2025, is projected to reach 200 by 2035, reflecting a doubling of market volume. A key driver is the ongoing shift to 1500 V system architectures, which is prompting replacements and upgrades of existing combiner boxes and creating demand for higher-voltage models.
    Additionally, stricter electrical safety codes in North America and Europe are accelerating the adoption of combiner boxes with integrated arc-fault detection and rapid shutdown features, lifting average unit prices. The supply side remains concentrated in China, which is expected to maintain its dominance as the world’s largest producer, though regional assembly is gradually increasing in North America and Europe to reduce import dependence and lead times. Commodity price volatility for copper and aluminum poses a risk to margins, but overall the market is poised for healthy expansion, with smart combiner boxes capturing a growing share of new deployments.
    Utility-scale solar farms represent the largest end-use segment for combiner boxes, accounting for an estimated 55 percent of global demand in 2026. These installations aggregate hundreds of thousands of PV strings, requiring robust combiner boxes that can handle high voltages and currents. The segment is being propelled by the global energy transition, with countries and utilities commissioning large solar parks to meet renewable energy targets. As project sizes increase, the number of combiner boxes per project rises, and the shift to 1500 V systems is accelerating.
    Demand-side indicators include global utility-scale solar capacity additions, which are expected to grow at a double-digit pace through 2035, and the increasing adoption of bifacial modules and trackers that boost energy yield and require more sophisticated combiner boxes. The trend toward smart combiner boxes with monitoring capabilities is particularly strong in this segment, as operators seek to optimize performance and reduce O&M costs. Major companies supplying this segment include Schneider Electric, ABB, and Eaton. Current trend: Growing.
    Major trends: Shift to 1500 V DC systems for higher efficiency and lower balance-of-system costs, Integration of smart monitoring and communication modules for remote diagnostics, Increasing use of combiner boxes with arc-fault detection and rapid shutdown, Growing demand for customized combiner solutions for large-scale projects, and Rising adoption of IP65+ rated enclosures for harsh environments.
    Representative participants: Schneider Electric, ABB, Eaton, Siemens, and Socomec.
    Commercial and industrial (C&I) rooftop solar systems are a significant and growing end-use segment, representing about 20 percent of combiner box demand in 2026. These installations, typically ranging from 100 kW to several megawatts, require combiner boxes that are compact, easy to install, and often integrate monitoring for performance tracking. The segment is driven by corporate sustainability initiatives, favorable net-metering policies, and falling solar costs. As businesses seek to reduce energy costs and carbon footprints, C&I solar installations are proliferating, particularly in North America, Europe, and Asia-Pacific.
    Demand-side indicators include commercial electricity prices, corporate renewable procurement targets, and rooftop availability. The trend toward smart combiner boxes is also evident here, as facility managers value remote monitoring and fault detection. Additionally, safety regulations in some regions mandate rapid shutdown for rooftop systems, boosting demand for compliant combiner boxes. Key suppliers include Weidmüller, Phoenix Contact, and Legrand. Current trend: Growing.
    Major trends: Increasing adoption of smart combiner boxes with monitoring for O&M efficiency, Stringent safety codes requiring rapid shutdown and arc-fault detection, Growth in rooftop solar among commercial buildings and warehouses, Preference for pre-configured and modular combiner boxes to reduce installation time, and Rising demand for combiner boxes with integrated surge protection.
    Representative participants: Weidmüller, Phoenix Contact, Legrand, Havells, and Mersen.
    Residential solar arrays account for approximately 10 percent of combiner box demand, primarily in systems with multiple strings. While many residential installations use microinverters or string inverters without separate combiner boxes, larger residential systems and those with complex roof layouts still require combiner boxes for string aggregation and protection. The segment is driven by residential solar adoption in markets with strong incentives, such as the United States, Germany, and Australia. Demand-side indicators include residential solar installations, household electricity prices, and financing availability.
    The trend toward smart home energy management is gradually influencing demand for combiner boxes with monitoring capabilities, but price sensitivity remains high. Safety regulations, such as rapid shutdown requirements in the US, are also shaping product specifications. Major companies serving this segment include Chint Electric, Havells, and Legrand. Current trend: Stable.
    Major trends: Integration of combiner boxes with home energy management systems, Adoption of rapid shutdown compliant combiners in North America, Growing use of combiner boxes in larger residential systems with multiple strings, Price sensitivity driving demand for cost-effective standard models, and Increasing focus on compact and easy-to-install designs.
    Representative participants: Chint Electric, Havells, Legrand, and Schneider Electric.
    Industrial automation and instrumentation is a niche but growing end-use segment for combiner boxes, representing about 10 percent of demand. In this context, combiner boxes are used to aggregate power from solar arrays that support remote industrial operations, such as oil and gas facilities, mining sites, and telecommunications towers. These installations often require ruggedized combiner boxes that can withstand harsh environments and provide reliable power. The segment is driven by the increasing use of solar power for off-grid and hybrid industrial applications, particularly in remote areas where grid connection is unreliable or expensive.
    Demand-side indicators include industrial capital expenditure on renewable energy, remote power needs, and the reliability requirements of industrial processes. The trend toward integrated monitoring and remote diagnostics is strong, as industrial operators seek to minimize downtime. Key suppliers include Siemens, Rittal, and Mersen. Current trend: Growing.
    Major trends: Growing adoption of solar-plus-storage for remote industrial power, Demand for ruggedized combiner boxes with high IP ratings, Integration of combiner boxes with industrial control systems, Increasing focus on reliability and remote monitoring, and Rising use of combiner boxes in hybrid microgrids.
    Representative participants: Siemens, Rittal, Mersen, and ABB.
    Electronics and optical systems represent a small share, about 5 percent, of combiner box demand. This segment includes specialized applications such as solar-powered electronics, optical communication systems, and precision manufacturing equipment that require reliable DC power aggregation. Combiner boxes in these applications are often custom-engineered to meet specific voltage and current requirements, and they may be integrated into larger power management systems. The segment is driven by the growth of off-grid electronics and the need for stable power in remote sensing and communication networks. Demand-side indicators include the deployment of solar-powered IoT devices and the expansion of optical networks in remote areas.
    The trend is toward miniaturized and highly reliable combiner boxes with advanced monitoring. Key suppliers include Phoenix Contact, Weidmüller, and specialized OEMs. Current trend: Stable.
    Major trends: Miniaturization of combiner boxes for compact electronic systems, Integration with power management and monitoring systems, Growing use of solar power for remote optical and communication systems, Demand for high-reliability components in precision manufacturing, and Custom-engineered solutions for OEM applications.
    Representative participants: Phoenix Contact, Weidmüller, and Mersen.
    Interactive table based on the Store Companies dataset for this report.
    Asia-Pacific dominates the global market, accounting for about 45 percent of demand, driven by massive utility-scale solar deployment in China, India, and Australia. China alone is the largest producer and consumer, with strong domestic demand and export orientation. The region is expected to maintain its lead through 2035, supported by favorable policies and declining solar costs. Direction: Growing.
    North America is a significant market, with the United States accounting for the majority of demand. Growth is driven by utility-scale projects and commercial rooftop installations, supported by federal incentives and state-level renewable portfolio standards. The region has a high import dependence for finished combiner boxes, but local assembly is increasing. Direction: Growing.
    Europe represents a mature market with steady demand, driven by renewable energy targets and the repowering of aging solar installations. Germany, Spain, and the Netherlands are key markets. The region has stringent safety and quality standards, favoring advanced combiner boxes with monitoring and rapid shutdown features. Direction: Stable.
    Latin America is an emerging market with growing solar deployment, particularly in Brazil, Chile, and Mexico. The region is expected to see robust growth in utility-scale projects, driven by auctions and bilateral contracts. Import dependence is high, with suppliers from China and North America dominating. Direction: Growing.
    The Middle East & Africa region is a smaller but rapidly growing market, with solar projects in the UAE, Saudi Arabia, and South Africa. The region benefits from abundant solar resources and increasing government support. Demand is primarily for utility-scale combiner boxes, with a focus on reliability and harsh-environment performance. Direction: Growing.
    In the baseline scenario, IndexBox estimates a 7.2% compound annual growth rate for the global combiner boxes for solar installations market over 2026-2035, bringing the market index to roughly 200 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 Combiner Boxes for Solar Installations market report.
    This report provides an in-depth analysis of the Combiner Boxes for Solar Installations market in the world, covering market size, growth trajectory, demand structure, supply capability, trade flows, pricing, competitive landscape, and forecast to 2035.
    The study is designed for manufacturers, distributors, importers, exporters, investors, procurement teams, advisors, and strategy teams that need a consistent, data-driven view of market dynamics and a transparent analytical definition of the product scope.
    This report covers the market for combiner boxes used in solar photovoltaic installations, including devices that consolidate multiple string inputs into a single output for connection to inverters. The scope encompasses both residential and utility-scale configurations, with analysis of technical specifications, regional demand, and competitive landscape.
    The report combines the standard market-statistics backbone with strategic chapters that are useful for commercial planning, sourcing decisions, market entry, competitor monitoring, and portfolio prioritization.
    The market is segmented into decision-relevant buckets so that demand drivers, pricing logic, supply constraints, and competitive positions can be compared across the same analytical frame.
    The report classifies combiner boxes by product type (standard combiner boxes, components and modules, integrated systems, consumables and replacement parts), by application (industrial automation and instrumentation, electronics and optical systems, semiconductor and precision manufacturing, OEM integration and maintenance), and by value chain segment (upstream inputs and critical components, manufacturing/assembly/quality control, distribution/integration/channel partners, after-sales service/replacement/lifecycle support).
    Coverage includes global totals, major demand markets, production and sourcing hubs, leading exporters and importers, and country profiles for the top national markets.
    The report combines official statistics, trade records, company disclosures, product-level evidence, and analyst validation. Data are standardized, reconciled, and cross-checked to keep market sizing, trade flows, pricing, and forecasts comparable across countries and time periods.
    All indicators are mapped to a consistent product definition and reviewed against the segmentation framework used in the Table of Contents.
    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, Trade and Value Capture
    Trade Flows and External Dependence
    Price Formation and Revenue Logic
    Who Wins and Why
    Where Growth and Supply Concentrate
    Commercial Entry and Scaling Priorities
    Where the Best Expansion Logic Sits
    Leading Players and Strategic Archetypes
    Detailed View of the Most Important National Markets
    How the Report Was Built
    Major supplier of combiner boxes for utility-scale solar
    Offers string combiner boxes for PV systems
    Provides combiner boxes for commercial and utility solar
    Integrated combiner box solutions for solar plants
    Smart combiner boxes with monitoring capabilities
    Offers combiner boxes for residential to utility scale
    Combiner boxes for PV plants, formerly ABB solar division
    Produces combiner boxes for global solar markets
    Combiner boxes for large-scale solar installations
    Offers combiner boxes for residential and commercial
    Combiner boxes for solar PV systems
    Combiner boxes with integrated monitoring
    Specialist in combiner boxes for PV systems
    Combiner boxes for solar applications
    Provides combiner box solutions for solar
    Combiner boxes with fuse protection for solar
    Combiner box components and integrated solutions
    Offers combiner boxes for residential solar
    Combiner boxes for DC-optimized solar systems
    Combiner boxes for AC-coupled solar installations
    Combiner boxes for large-scale solar projects
    Combiner boxes for utility-scale PV
    Combiner boxes for domestic and export markets
    Combiner boxes for commercial solar installations
    Offers combiner boxes for residential solar
    Combiner boxes for solar PV systems
    Specialist in combiner box production
    Combiner boxes for distributed solar
    Niche producer of combiner boxes
    Combiner boxes for European solar markets
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    Navitas secures up to US$ 20 million for solar cell manufacturing – Manufacturing Today India

    Navitas secures up to US$ 20 million for solar cell manufacturing  Manufacturing Today India
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    India Hosts AgriVoltaics World Conference 2026, Announces New Programme Under PM-KUSUM – SolarQuarter

    India Hosts AgriVoltaics World Conference 2026, Announces New Programme Under PM-KUSUM  SolarQuarter
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    Water Under the Bridge: Floating Solar Panels Are Deep-Sixed – Peekskill Herald

    A project in Peekskill over three years in the making, to deploy a floating solar array with a 1.68 megawatt system on the larger side of the city-owned Camp Field Reservoir at 1000 Lindberg Place, has been withdrawn by its applicants.
    The joint project by the Garrison-based nonprofit Ecological Citizens Project and Philadelphia-based renewable energy developer Working Power sought to lower energy bills for city residents but was met with continued opposition by several residents due to being planned on a source of drinking water for thousands of residents.
    The withdrawal announcement was made by Peekskill Director of Planning and Development Carol Samol at the Planning Commission meeting on Thursday, Oct. 15. Samol said applicants looked at the conditions and found the costs were in excess of what the project could support, thus opting to withdraw their application.

    The Peekskill Camp Field Reservoir on Monday, Oct. 19. (Eric Harvey)

    “Working Power ECP LLC concluded that the cost and timing of the necessary infrastructure upgrades would not allow the project to be completed within a reasonable timeframe and in a manner that would have ensured the delivery of the meaningful community benefits that project originally proposed,” Samol told the Peekskill Herald in an email.
    In a phone call with the Peekskill Herald, Jason Angell, co-director of the Ecological Citizens Project, and Ian Fischer, co-executive director of Working Power, further expanded on why they decided to withdraw. 
    The project was set up to receive federal investment solar tax credits, set to sunset after Dec. 31, 2027, which were estimated to be up to 50 percent of a subsidy of the project cost. However, Fischer said additional required water infrastructure improvements stretched the construction timeline to a point where it could not be done in time to qualify for the credits.


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    “There were concerns raised by both Planning Commission members and members of the public around any risks with putting floating solar on the drinking water reservoir,” Angell explained. “And those were concerns as an environmentally-based nonprofit that we shared. Ultimately the Planning Board put a number of conditions to move the project forward, and the cost of those conditions when we had an environmental engineer review them did not allow the project to financially provide the benefits [we anticipated].”

    Jason Angell talks to the public on May 12, 2026. (Eric Harvey)

    In 2023, the City of Peekskill issued a request for proposals to develop community-owned solar on municipality-owned properties. The Ecological Citizens Project and Working Power applied and were awarded the project in April 2024. The property that rose to the top of the city’s list for development of floating solar was the Camp Field Reservoir.
    The project would have been “community-owned,” meaning that the Ecological Citizens Project would have owned half of the project, with all revenue generated going back to the City of Peekskill. It aimed to bring a $2.8 million economic benefit to Peekskill over the project’s 25-year lifetime via lease payments to the city of $645,000, $1.1 million in electricity bill savings, and $1.2 million devoted to the creation of a food sovereignty fund.
    A petition created by Peekskill resident Peter Korcz received over 760 signatures in opposition, citing concerns of drinking water contamination, disturbance of aquatic ecosystems and long-term impacts on water quality.

    Carl Pollack said he was elated to learn the floating solar project was withdrawn. Behind him is one of the entrances to the reservoir on Vail Avenue. (Eric Harvey)

    The Herald spoke to residents living nearby to the Camp Field Reservoir to learn their reaction to the project being withdrawn. Carl Pollack, a resident on Lewis Court, said he was elated to hear the announcement.
    “The floats might have dispersed microplastics into the reservoir, so I was concerned about that as far as the solar panels sitting on top of the actual water,” Pollack said. “That’s the drinking water for the City of Peekskill.”
    Emily Snow-Prendi, a resident on Lindbergh Place, also said she was glad, saying she would have been more supportive of a proposal like the solar canopy and battery project at the Croton-Harmon train station, which saw solar panels placed over portions of the commuter parking lot.
    “At first the idea seemed really cool and ingenious and like ‘Why not? But the more I thought about it, why would you put it on our drinking water source? I grew up in Croton and what Croton did down there at the train station, that’s so much better. We have tons of areas like that in Peekskill. Why do we want to wait and find out 10 years down the line, ‘Oops, we shouldn’t have done that.’”

    Emily Snow-Prendi was glad to learn on Monday, Oct. 19, the floating solar project was withdrawn. Behind her is one of the gates to the reservoir on Lindbergh Place. (Eric Harvey)

    The Herald also spoke on the phone with resident Marcus Ryan, who, at a public hearing on May 12, described the project as necessary amid federal commodity program cuts and energy price spikes.
    “I think it was a worthwhile project to raise because we have to be really entrepreneurial in order to solve the problem around energy and food,” Ryan said. “I also understand people’s reservations about it being on our drinking water, but I do think there’s a certain entrepreneurial lethargy in Peekskill around how we problem-solve around these big challenges. Everybody’s got a different risk equilibrium, and if this was too high, that’s okay, fine. But it’s not enough to subtract projects. We have to come together as a community and make projects to address these challenges.”
    Angell said opposition did not play a role in the decision to withdraw, saying the goal of the “community-owned” system was to provide the City of Peekskill benefits with large energy bill discounts to low-income Peekskill households and the creation of a food sovereignty fund for local food security efforts.

    Marcus Ryan speaks in support of the project on May 12. (Eric Harvey)

    Asked if it was possible for the project to return in another form in the future, Fischer said there was “certainly opportunity” and they would “love to see a project get done.”
    “We, like the Ecological Citizens Project, are driven by delivering community ownership and community benefit, energy savings,” Fischer said, adding that solar can be installed on buildings with big flat roofs such as warehouses but also more traditional type roof installations that are cheaper to build. “It’s something we’d all love to see, and the key is finding a site that is available that would meet the needs of building assistance.”
    Both Fischer and Angell said they believe such community-owned systems are necessary and that both of their organizations are dedicated to ensuring that the control of such investments and benefits stays in the hands of communities. 
    “Both of us remain committed to this core idea that who owns renewable energy assets determines who gets the benefits and whether that’s instead of larger profits for investors, deeper energy bill savings for residents or community programs, that is a movement that is playing itself out,” Angell said. “Even though this project didn’t work this time, this movement to drive the economic benefits from renewable energy back to local communities is going to continue.”

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    Sullivan County Power Project Secures $540M Financing for 350 MW Indiana Solar Farm – Construction Review

    Construction Review

    Published on Oct 22, 2026
    M Kubwa
    Deriva Energy announced that they have successfully closed a financing of approximately $540 million for the Sullivan County Power Project. The 350 MW solar project is currently under construction in Sullivan County, Indiana. Also, the project adds to Deriva’s portfolio of approximately 7 GW of operating assets across the country’s major power markets. Moreover, this project adds on to Indiana’s renewable energy portfolio as the state emerges as one of the fastest-growing utility-scale solar investment hubs in the United States.
    The financing was arranged by Deriva Energy’s Capital Markets team. Moreover, it is inclusive of commitments from leading financial institutions.
    Furthermore, the transaction supports the continued development and construction of the project. Additionally, it reflects the combined efforts of teams across Deriva, its financing partners and external advisors.
    “We are pleased to close this financing for Sullivan County Power. This is our 350 MW solar project currently under construction in Indiana,” stated Paul Tivnan, Chief Financial Officer of Deriva Energy. “The project’s quality and financing attributes resulted in strong demand from top-tier relationship banks and competitive terms. Moreover, we look forward to working together to bring Sullivan County Power to completion.”
    The five-bank club include: Royal Bank of Canada (RBC), DNB Bank ASA, Mizuho Bank LTD., National Westminster Bank PLC, and Wells Fargo Securities, LLC. Additionally, RBC will serve as Administrative Agent and Collateral Agent. Skadden served as borrower’s counsel, and Milbank served as lenders’ counsel.
    “Closing this financing reflects months of collaboration across Deriva, our lenders and external advisors,” said Thomas Hopkins, Senior Director and Head of Capital Markets & Treasury at Deriva Energy. “Moreover, the transaction builds on financing structures we have successfully utilized across our portfolio and provides a framework we can apply to our extensive development pipeline.”
    Once complete, Sullivan County Power will be the largest project built by Deriva to date. Also, it will represent a significant milestone in the company’s continued growth. Lastly, the successful financing positions the project to move forward through construction and into commercial operation.
    Project Name: Sullivan County Power Project
    Developer and Owner: Deriva Energy (a Brookfield Renewable portfolio company)
    Location: Sullivan County, Indiana
    Technology: Utility-Scale Solar Photovoltaic (PV)
    Capacity: 350 MW (Largest project built by Deriva to date)
    Project Status: Under Construction
    Financial Highlights
    Total Debt Financing: Approx. $540 Million
    Structure: Five-bank club deal
    Lender Consortium:
    Legal Counsel:
    Key Takeaways and Significance
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    Solar Power Lights Up Lives Across Kenya – The Energy Mix

    Friends School Kamusinga/Wikipedia
    From schoolrooms to fish markets and small farms, solar power is helping Kenyans cut energy costs, keep food fresh, and irrigate crops where grid electricity is limited or unreliable.
    Driven by demand for affordable, dependable power, the shift has made Kenya a major market for off-grid solar, accounting for [pdf] nearly three-quarters of solar home system sales in East Africa by 2023.
    At Friends School Kamusinga, a boarding school more than 400 kilometres from Nairobi, a whopping 4.3-million shilling annual power bill in 2024, equal to about C$47,000, was a wake-up call that something had to change.
    “Over the years, we had witnessed an increase in electricity bills, but at this point, we knew that if we didn’t find an alternative fast, then we would be forced to forego other critical school needs in order to meet these energy costs,” Chief Principal Paul Weloba told The Energy Mix.
    The Kenyan government gives schools a fixed per-student allocation for water and electricity, but energy costs remain a burden on school balance sheets, leading management to tap parents for additional financial support.
    “The impact of schools having limited, expensive electricity was reported to result in reduced educational outcomes, increased financial burden for parents, poor staff retention, and ultimately reduced school attendance,” researchers wrote in a 2023 peer-reviewed study.
    Reliability is also a problem, Weloba said. During rainy seasons, the school had to find backup power amid frequent blackouts, especially at night.

    Against this backdrop, the school turned to the sun. In February 2025, using a green loan from a local bank, the school set up a solar photovoltaic system costing 12 million shillings, around C$132,000.
    The hybrid solar PV system combines solar panels with battery storage and another power system—either the national grid or a backup generator, solar engineer Paul Mabonga, managing director at Sentimental Energy, told The Mix. “This generates electricity during the day, stores excess in batteries, and ensures continuous power even at night or during extended cloudy periods.”
    At the school, during the day, solar panels power classrooms and charge batteries. At night, or when solar generation is low, the system taps into stored energy, or to the grid and generator.
    “This reduces reliance on diesel and unstable grid supply, enabling smoother school operations,” Mabonga said.
    Though the upfront payment and the monthly payments seem substantial, the savings are greater still, with a nearly 80% cut in energy costs, Weloba said.
    “Now we pay about 200,000 shillings (around C$2,200), for the loan per month, which is still lower than what we had previously been paying for electricity.”
    The savings have been redirected toward infrastructure and other school initiatives.
    Households and small businesses are also adopting off-grid solar. At Kakuma Market in Turkana County, where grid access is limited, 29-year-old fish retailer Josephine Erika can keep up to 50 kilograms of stock fresh in a solar-powered refrigerator. She acquired it in January, 2025, by partnering with a solar energy company.
    “Around Lake Turkana, fishers often had to sell quickly at low prices or dry the fish because fresh fish could not be preserved reliably,” Kimani Gichuche, director at Adili Solar Hubs Limited, told The Mix.
    With access to solar refrigeration, they’ve been able to extend the shelf life of fish, improving product quality,and reducing the pressure to sell immediately.
    In Kiambu County, north of Nairobi, organic farmer Esther Wariara uses a solar-powered water pump to irrigate her crops, and a solar-powered dryer to preserve and dry different crops, including bananas and cassava. She told The Mix that before she invested in solar solutions, the high energy cost of using grid electricity ate into her returns.
    By June, 2025, captive solar PV capacity—electricity generated primarily for customer’s own use—had increased to 300.5 megawatts, according to the agency responsible for regulating the energy sector, the Energy and Petroleum Regulatory Authority (EPRA). Captive solar made up 60% of Kenya’s installed solar capacity, showing continued growth in privately-installed solar systems at institutions, businesses, and industries.
    EPRA Acting Director General Joseph Oketch told The Mix that rooftop solar plays a key role in lowering electricity costs for Kenyans.
    The declining costs of solar technologies are a significant factor driving adoption in Kenya, but experts say supportive government policies, regulatory frameworks, and energy sector initiatives have also played a large role in supporting this growth.
    Kenya stands among the leaders in renewables policy—ranking first in Africa for sustainable energy policy, with a score of 72%, followed by Tunisia at 69%, found the 2023 Regulatory Indicators for Sustainable Energy (RISE) report.
    EPRA developed and is implementing regulations aimed at encouraging renewable energy adoption, including PV rules that provide for licencing of all players in the value chain, with the aim of enforcing the quality of equipment and installations.
    Net-metering regulations and solar water heating regulations provide for the banking of excess renewable generation through the grid, encourage renewables adoption, and enforce standards, Oketch said.
    Yet experts don’t see solar as a silver bullet for Kenya’s energy challenges.
    “Affordability remains a hurdle as solar solutions come with high upfront costs, and sometimes users fall behind in payment, leading to disconnection,” Mabonga said.
    Skilled maintenance personnel are also scarce, especially in rural areas. “Quality and maintenance issues exist—especially for the consumer devices—and [there are] limited productive uses of the energy, since most of these systems are too small for energy-intensive activities,” Oketch said.

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    Friends School Kamusinga/Wikipedia
    From schoolrooms to fish markets and small farms, solar power is helping Kenyans cut energy costs, keep food fresh, and irrigate crops where grid electricity is limited or unreliable.
    Driven by demand for affordable, dependable power, the shift has made Kenya a major market for off-grid solar, accounting for [pdf] nearly three-quarters of solar home system sales in East Africa by 2023.
    At Friends School Kamusinga, a boarding school more than 400 kilometres from Nairobi, a whopping 4.3-million shilling annual power bill in 2024, equal to about C$47,000, was a wake-up call that something had to change.
    “Over the years, we had witnessed an increase in electricity bills, but at this point, we knew that if we didn’t find an alternative fast, then we would be forced to forego other critical school needs in order to meet these energy costs,” Chief Principal Paul Weloba told The Energy Mix.
    The Kenyan government gives schools a fixed per-student allocation for water and electricity, but energy costs remain a burden on school balance sheets, leading management to tap parents for additional financial support.
    “The impact of schools having limited, expensive electricity was reported to result in reduced educational outcomes, increased financial burden for parents, poor staff retention, and ultimately reduced school attendance,” researchers wrote in a 2023 peer-reviewed study.
    Reliability is also a problem, Weloba said. During rainy seasons, the school had to find backup power amid frequent blackouts, especially at night.

    Against this backdrop, the school turned to the sun. In February 2025, using a green loan from a local bank, the school set up a solar photovoltaic system costing 12 million shillings, around C$132,000.
    The hybrid solar PV system combines solar panels with battery storage and another power system—either the national grid or a backup generator, solar engineer Paul Mabonga, managing director at Sentimental Energy, told The Mix. “This generates electricity during the day, stores excess in batteries, and ensures continuous power even at night or during extended cloudy periods.”
    At the school, during the day, solar panels power classrooms and charge batteries. At night, or when solar generation is low, the system taps into stored energy, or to the grid and generator.
    “This reduces reliance on diesel and unstable grid supply, enabling smoother school operations,” Mabonga said.
    Though the upfront payment and the monthly payments seem substantial, the savings are greater still, with a nearly 80% cut in energy costs, Weloba said.
    “Now we pay about 200,000 shillings (around C$2,200), for the loan per month, which is still lower than what we had previously been paying for electricity.”
    The savings have been redirected toward infrastructure and other school initiatives.
    Households and small businesses are also adopting off-grid solar. At Kakuma Market in Turkana County, where grid access is limited, 29-year-old fish retailer Josephine Erika can keep up to 50 kilograms of stock fresh in a solar-powered refrigerator. She acquired it in January, 2025, by partnering with a solar energy company.
    “Around Lake Turkana, fishers often had to sell quickly at low prices or dry the fish because fresh fish could not be preserved reliably,” Kimani Gichuche, director at Adili Solar Hubs Limited, told The Mix.
    With access to solar refrigeration, they’ve been able to extend the shelf life of fish, improving product quality,and reducing the pressure to sell immediately.
    In Kiambu County, north of Nairobi, organic farmer Esther Wariara uses a solar-powered water pump to irrigate her crops, and a solar-powered dryer to preserve and dry different crops, including bananas and cassava. She told The Mix that before she invested in solar solutions, the high energy cost of using grid electricity ate into her returns.
    By June, 2025, captive solar PV capacity—electricity generated primarily for customer’s own use—had increased to 300.5 megawatts, according to the agency responsible for regulating the energy sector, the Energy and Petroleum Regulatory Authority (EPRA). Captive solar made up 60% of Kenya’s installed solar capacity, showing continued growth in privately-installed solar systems at institutions, businesses, and industries.
    EPRA Acting Director General Joseph Oketch told The Mix that rooftop solar plays a key role in lowering electricity costs for Kenyans.
    The declining costs of solar technologies are a significant factor driving adoption in Kenya, but experts say supportive government policies, regulatory frameworks, and energy sector initiatives have also played a large role in supporting this growth.
    Kenya stands among the leaders in renewables policy—ranking first in Africa for sustainable energy policy, with a score of 72%, followed by Tunisia at 69%, found the 2023 Regulatory Indicators for Sustainable Energy (RISE) report.
    EPRA developed and is implementing regulations aimed at encouraging renewable energy adoption, including PV rules that provide for licencing of all players in the value chain, with the aim of enforcing the quality of equipment and installations.
    Net-metering regulations and solar water heating regulations provide for the banking of excess renewable generation through the grid, encourage renewables adoption, and enforce standards, Oketch said.
    Yet experts don’t see solar as a silver bullet for Kenya’s energy challenges.
    “Affordability remains a hurdle as solar solutions come with high upfront costs, and sometimes users fall behind in payment, leading to disconnection,” Mabonga said.
    Skilled maintenance personnel are also scarce, especially in rural areas. “Quality and maintenance issues exist—especially for the consumer devices—and [there are] limited productive uses of the energy, since most of these systems are too small for energy-intensive activities,” Oketch said.

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    360Energy gets grid access for 16.5-MW solar project in Buenos Aires – Renewables Now

    Renewables Now is a leading business news source for renewable energy professionals globally. Trust us for comprehensive coverage of major deals, projects and industry trends. We’ve done this since 2009.
    Stay on top of sector news with with Renewables Now. Get access to extra articles and insights with our subscription plans and set up your own focused newsletters and alerts.

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    Navitas raises $20 million to expand into solar cell manufacturing – Power Peak Digest

    Navitas has secured up to USD 20 million in growth capital from responsAbility, a Swiss impact asset manager investing on behalf of its investors, to fund its move into solar cell manufacturing. The company said in a press release that the money will go towards its expansion into cells, including a planned 2.2 GW facility in India. Navitas also plans to enter wafer and ingot manufacturing in the near future, which would deepen its backward integration.
    The investment comes from responsAbility’s Asia Climate Fund, which targets scalable private-sector solutions and positive societal impact in high-growth markets. Navitas said its expansion fits the priorities of energy security, greater domestic value addition and globally competitive clean-energy supply chains in India. Centrum Capital’s Infrastructure Advisory arm, based in Mumbai, acted as exclusive financial advisor to Navitas. The unit has advised established players in solar manufacturing and the energy transition.
    Integrated platform
    Founded in 2013, Navitas already has 2.2 GW of operational module capacity and an established presence in solar encapsulants. It also runs solar engineering, procurement and construction (EPC) and renewable power generation businesses in India and abroad, including utility-scale EPC projects in Africa, along with battery energy storage systems (BESS). 
    The company recently announced plans to invest about USD 1 billion over five years in Gujarat and Maharashtra to build a platform spanning ingots, wafers, cells, modules, BESS and renewable power generation. Entering cells would let it expand across the solar value chain and strengthen its long-term competitiveness.
    Management view
    Vineet Mittal, Director, Navitas, framed the deal as both a funding event and a strategic fit. He 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.”
    On the sustainability side of that growth, 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, spoke to the financial implications. He 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.”
    Investor view
    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.”
    Gentari has commissioned a 150 MWp open access solar power project at Dahegaon village in Yavatmal district, Maharashtra. The plant is connected to the state transmission utility and ranks among the largest open access solar installations serving commercial and industrial (C&I) consumers in the state. The project is expected to generate approximately 248 million units…
    Read More Gentari commissions 150 MWp open access solar plant in Maharashtra
    Tata Projects Ltd, in collaboration with the Power Grid Company of Bangladesh (PGCB), has completed the 112-km, 400-kV double-circuit Barapukuria-Bogra transmission line project, valued at $120 million.  The project, executed in just 14 months, involved the supply of approximately 2,700 km of ACCC® Dhaka-size conductor by Apar Industries, with installation supported by Zeck tensioners and…
    Read More Tata Projects completes Barapukuria-Bogra transmission line in Bangladesh
    Gujarat Urja Vikas Nigam Limited (GUVNL) has awarded 306 MW of wind power capacity to four developers, finalising a competitive tender process initiated in September 2025. The tariffs discovered in this auction are notably lower than those in the utility’s previous wind procurement round. The allocation followed a three-month evaluation period for GUVNL’s 250 MW…
    Read More GUVNL awards 306 MW wind capacity at lower tariffs
    Hindustan Powerprojects Private Limited (HPPPL) has started construction of a 300 MW (435 MWp) Inter-State Transmission System (ISTS)-connected solar power project in Lalitpur, Uttar Pradesh. The project is part of the larger 2,000 MW ISTS-connected solar programme being implemented for Uttar Pradesh Power Corporation Limited (UPPCL). It was announced during the Clean Energy Summit 2025…
    Read More Hindustan Powerprojects begins work on 300 MW solar project for UPPCL
    REC Power Development and Consultancy Limited (RECPDCL) has launched a tariff-based competitive bidding (TBCB) process to select a transmission service provider for evacuating power from the 450 MW Shongtong Karcham hydroelectric project (HEP) and the 150 MW Tidong HEP in Himachal Pradesh. The project, being developed by Himachal Pradesh Power Corporation Limited (HPPCL), is scheduled…
    Read More RECPDCL invites fresh bids for Himachal hydropower evacuation scheme
    Larsen & Toubro Limited’s Power Transmission & Distribution (PT&D) vertical has secured a set of engineering, procurement, and construction (EPC) orders for grid system projects across India and the Middle East. In India, the PT&D vertical received contracts for the design, supply, and construction of two 220 kV Gas Insulated Substations (GIS) in the Durgapur-Raniganj-Asansol…
    Read More L&T secures major PT&D EPC orders in India and Middle East
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    Fujiyama Power Systems’ 1.2 GW Ratlam Solar Cell Plant Remains on Track Despite China Export Curbs – SolarQuarter

    Fujiyama Power Systems’ 1.2 GW Ratlam Solar Cell Plant Remains on Track Despite China Export Curbs  SolarQuarter
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    Global model maps aquavoltaics potential for power and emissions offsets – Bioengineer.org

    Global model maps aquavoltaics potential for power and emissions offsets
    A global modeling study estimates that installing solar photovoltaic systems over clustered freshwater aquaculture ponds could produce 4,143 ± 145 terawatt-hours of electricity annually and help offset the sector’s carbon footprint. Researchers combined satellite observation products with climate-driven simulations of photovoltaic systems to map the distribution and potential expansion of aquavoltaics worldwide. They estimated the scenario by covering 40% of more than 50,000 square kilometres of landside aquaculture ponds.
    The results describe modeled technical potential rather than output from a completed deployment program. The study found that aquavoltaics covered 423 square kilometres globally in 2023, with China accounting for 97% of that area. Using satellite data to identify clusters of aquaculture ponds, the researchers evaluated where photovoltaic installations could be placed and estimated their electricity production under realistic climate-driven system simulations.
    Their 40% coverage scenario produced the central estimate of 4,143 ± 145 TWh per year, with the accompanying uncertainty indicating a range rather than a single guaranteed output. The researchers also compared modeled aquavoltaic generation with electricity demand at the city level. Under the scenario they assessed, deployment could support energy self-sufficiency in 878 cities.
    A second component of the analysis examined the relationship between renewable electricity generated by aquavoltaics and emissions associated with inland freshwater aquaculture. At the grid level, the model estimated that deployment could offset the freshwater aquaculture carbon footprint in 61 countries through avoided emissions associated with electricity generation. This was a modeled accounting relationship between estimated renewable output and the electricity system, not evidence that aquaculture in those countries has already reached a net-zero balance.
    The findings are presented as a global assessment of potential, and the supplied results do not establish how quickly or to what extent installations could be realized. Taken together, the analysis places aquavoltaics at the intersection of energy, food production and climate accounting. The study identifies a large modeled generation potential and links part of that potential to city-level electricity supply and national-scale emissions offsets.
    Its scope, however, is defined by a global model using satellite observations, climate-driven photovoltaic simulations, a 40% pond-coverage assumption and grid-level avoided emissions.
    Subject of Research: Global modeling of aquavoltaic electricity generation and freshwater aquaculture emissions offsets
    Article Title: The global potential of aquavoltaics for power generation and offsetting the carbon footprint of freshwater aquaculture
    Article References: Xia, Z., Bush, S. R., Jia, N., Li, Y., Bao, E., Guo, S., Chen, R., Pan, X., Chen, K., Guo, X., Jiang, P., & Du, P. (2026). The global potential of aquavoltaics for power generation and offsetting the carbon footprint of freshwater aquaculture. Nature Food. https://doi.org/10.1038/s43016-026-01446-6
    Image Credits: AI Generated
    DOI: 10.1038/s43016-026-01446-6
    Keywords: aquavoltaics, photovoltaics, freshwater aquaculture, renewable electricity, greenhouse gas emissions, satellite observations, global modeling, climate-driven simulation, grid emissions, global, potential, power
    News Source: Ophelia Keating. (October 22, 2026). Global model maps aquavoltaics potential for power and emissions offsets. Scienmag.
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    Data centers could pay for residents’ solar panels under St. Louis bill – STLtoday.com

    Workers install solar panels on the roof of the Jack C. Taylor Visitor Center at the Missouri Botanical Garden in St. Louis on August 11, 2022.
    ST. LOUIS — A top city official wants data centers to help bring renewable energy to lower-income residents.
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    Workers install solar panels on the roof of the Jack C. Taylor Visitor Center at the Missouri Botanical Garden in St. Louis on August 11, 2022.
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    Gritt Robotics brings AI-assisted robotics to bolster shrinking solar workforce – pv magazine USA

    Robots are most effective in laboratories or controlled environments, such as a factory floor. When robots are required to automate tasks outdoors, the range of applications narrows with the number variables encountered. For this reason, construction sites remain labor-intensive locations resistant to robotics.
    Solar construction sites may admit more automation than other sorts because of the regularity and essentially two-dimensional aspect of their layouts. Placement of heavy bases and even tracker tubes have been automated to some degree on many utility-scale solar projects for years. A key goal of these implementations is to have robots take over the more arduous tasks of materials transport and repetitive placement in all weather conditions.
    More recently, robotics startups have been developing technologies for placing panels and even performing more dexterous finishing tasks. Some of these companies have received significant investment and contracts with engineering, procurement and construction (EPC) firms.
    California-based Gritt Robotics focused squarely on large-scale solar construction for its approach to retrofitting commercial construction equipment with computer control featuring AI for improved flexibility and even site management support. Gritt recently announced it has deployed its robotic construction systems at solar job sites run by EPC Burns & McDonnell. In all, the company says it is it’s working with three top-10 solar EPCs to install six million solar panels in the next two years with a capacity of about 2.8 GW.
    Puneet Puri, co-founder and CEO of Gritt, told pv magazine USA that large-scale solar sites have been an excellent proving ground for the company’s AI-assisted robotics technology.
    “Outdoors is hard,” Puri said. “Outdoors, there’s going to be a lot of variability. Our thesis is that solar offers an example of a construction site where there are a lot of physically demanding, repetitive steps and materials transport that can be automated. At the same time, because it is outside, we can address aspects of a dynamic environment. We can build an intelligence layer that understands the challenges on the site, like trenches are open, people are moving through, materials may have snow or rain or dust on them, the light changes.”
    Thus, large-scale solar construction has that right combination of regularity and variability where a robot with the proper common representation layer that can be trained for individual tasks under varying conditions. Ultimately, Gritt intends to apply the lessons learned from solar sites to data center construction and other infrastructure projects.
    At the same time, Puri says solar has many repetitive tasks beyond heavy lifting that can be applied to other types of construction, such as tying rebar, applying fasteners, or attaching cables. It is all a matter of training. An aspect of Gritt’s software driven, AI learning approach is that nearly any type of construction vehicle or robotic arm can be retrofitted to perform specialized tasks autonomously.
    “Caterpillar and Bobcat know how to build good vehicles,” Puri said. “For that matter, Kawasaki, FANUC, and KUKA know how to build good robots. Why should we reinvent the base platforms, which in many cases have been working in the harshest environments? We focus on writing the right brain to control them to do their jobs safely and repetitively.”
    In terms of training, Vishal Dugar, co-founder and chief technology officer at Gritt, told pv magazine USA that like human workers, AI builds the ability to understand patterns, certain similarities of how to operate from one job site to another.
    “When a person learns how to use a particular tool on one job, those skills remain constant,” Dugar said. “The AI also learns. It identifies all the similar patterns that it can reuse to make learning the next job that much faster.”
    Puri and Dugar are alumni of the Robotics Institute at Carnegie Mellon University (CMU). Other members of Gritt’s leadership team also hail from CMU, or from MIT or other centers of automation research and practical application. There was a time when robots out in the field had to be purpose-built and shepherded by specialists to perform specific functions, whether descending into an Antarctic volcano or surveying the ruins of Chernobyl. Now, robots are on the cusp of taking on a wide variety of tasks guided by tutors rather than wrangled by technicians.
    As indicated earlier, if the company views unstructured construction environments as the new frontier for physical AI, large-scale solar projects are proving to be an excellent proving grounds. It’s not just the relatively straightforward process of building out arrays. The industry is signaling a need for workers and warns of a growing shortage. According to recent industry reports, there is a shortfall of 53,000 workers needed to complete ongoing projects. Some estimate that 41% of construction workers nationwide will retire by 2031.
    With competition for construction workers heating up, EPCs face a need to move and support personnel for projects in remote locations where accommodations are scarce. If this is the case for large-scale solar projects, it will also apply to data centers and other infrastructure projects facing opposition in populated areas.
    “The mission of the company is to help civilization build infrastructure rapidly,” Puri said. “A big part of our vision is to help create the workforce of tomorrow. It’s not the same workforce that is doing the same things in the same way. It’s people who can use the tools we are developing to amplify what they’re able to do.”
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    Credence Solar shows 745 W Quasar N TOPCon module at REI 2026 – Solarbytes

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    Credence Solar Panels, a module manufacturer that is based in Rajkot, Gujarat, India, has placed its Quasar N module at the centre of its stand at REI Expo 2026, which is being held at India Expo Mart in Greater Noida, Uttar Pradesh, India. The Quasar N is a glass-to-glass bifacial panel that has been built with 132 half-cut G12 n-type TOPCon cells, and it is offered in ratings from 725 W to 745 W. According to the company’s datasheet, the 745 W version can reach an efficiency of 24%, and it has a bifaciality of 80%. The module is also covered by a 30-year linear power warranty, under which 87.4% of its output is guaranteed at the end of the term. Alongside it, the company, which says that it has 2.2 GW of module capacity, is displaying a 640 Wp DCR module in Hall 9.
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    London Stadium’s Rooftop Solar System Hits 1M kWh Generated Since 2025 – The Energy Mix

    Ameresco UK
    A rooftop solar panel installation atop London Stadium has generated one million kilowatt-hours in just 14 months since it came online in 2025, enough electricity to avoid roughly 177 tonnes of carbon dioxide equivalent emissions.
    The power generation would be enough to run more than 350 average UK households for a year, a London Stadium release says.
    London Stadium was built to host the 2012 Summer Olympics and is now a multi-use outdoor space that is also home to home to Premier League football club West Ham United. The facility’s 3,350 solar membrane panels cover 6,500 square metres and are fully integrated into the stadium’s roof. They were approved in 2024 and began producing power in 2025, when they were expected to generate 850,000 kWh and offset more than 200 tonnes of carbon emissions per year.

    The project cost £4.35 million (C$8.17 million), part of a £500-million (C$938.9-million) Green Finance Fund launched in 2023 to support the city’s transition to net-zero.
    The recent London Stadium release said the panels produced more than 140,000 kWh in June, 2026, alone, enough to meet 21% of the stadium’s demand for that month.
    Other stadiums in the UK also host solar panels, including at Principality Stadium in Cardiff, Wales, and Ashton Gate Stadium in Bristol, England. The Tottenham Hotspur Stadium in Nottingham, England, is currently planning a 3,770-panel installation, sufficient to generate 1.64 megawatts of electricity. Construction was due to start in September and take three months to complete, writes Construction News.
    London Stadium says its installation is one of the largest in Europe, with others including a photovoltaic system able to generate 4 MWh per year at Signal Iduna Park in Germany.
    Stadium solar installations are becoming increasingly common globally, operating at 12 of the 16 venues that hosted the 2026 World Cup, writes Canal Solar.
    Framing the London Stadium’s achievement in an international context demonstrates how differences in energy consumption will affect decarbonization efforts across regions.
    Data from Ofgem —the UK’s Office of Gas and Electricity Markets—shows that an average UK household uses about 2,500 kilowatt-hours (kWh) of electricity per year.
    In comparison, the Ontario Energy Board estimated in 2023 that a typical Ontario household used 750 kWh electricity per month—or about 9,000 kWh per year.  So a similar solar installation would be enough to supply just over 111 Ontario households’ annual needs.

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    Ameresco UK
    A rooftop solar panel installation atop London Stadium has generated one million kilowatt-hours in just 14 months since it came online in 2025, enough electricity to avoid roughly 177 tonnes of carbon dioxide equivalent emissions.
    The power generation would be enough to run more than 350 average UK households for a year, a London Stadium release says.
    London Stadium was built to host the 2012 Summer Olympics and is now a multi-use outdoor space that is also home to home to Premier League football club West Ham United. The facility’s 3,350 solar membrane panels cover 6,500 square metres and are fully integrated into the stadium’s roof. They were approved in 2024 and began producing power in 2025, when they were expected to generate 850,000 kWh and offset more than 200 tonnes of carbon emissions per year.

    The project cost £4.35 million (C$8.17 million), part of a £500-million (C$938.9-million) Green Finance Fund launched in 2023 to support the city’s transition to net-zero.
    The recent London Stadium release said the panels produced more than 140,000 kWh in June, 2026, alone, enough to meet 21% of the stadium’s demand for that month.
    Other stadiums in the UK also host solar panels, including at Principality Stadium in Cardiff, Wales, and Ashton Gate Stadium in Bristol, England. The Tottenham Hotspur Stadium in Nottingham, England, is currently planning a 3,770-panel installation, sufficient to generate 1.64 megawatts of electricity. Construction was due to start in September and take three months to complete, writes Construction News.
    London Stadium says its installation is one of the largest in Europe, with others including a photovoltaic system able to generate 4 MWh per year at Signal Iduna Park in Germany.
    Stadium solar installations are becoming increasingly common globally, operating at 12 of the 16 venues that hosted the 2026 World Cup, writes Canal Solar.
    Framing the London Stadium’s achievement in an international context demonstrates how differences in energy consumption will affect decarbonization efforts across regions.
    Data from Ofgem —the UK’s Office of Gas and Electricity Markets—shows that an average UK household uses about 2,500 kilowatt-hours (kWh) of electricity per year.
    In comparison, the Ontario Energy Board estimated in 2023 that a typical Ontario household used 750 kWh electricity per month—or about 9,000 kWh per year.  So a similar solar installation would be enough to supply just over 111 Ontario households’ annual needs.

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    I agree to the Terms & Conditions and Privacy Policy.

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    Copyright 2026 © Energy Mix Productions Inc. All rights reserved.
    Copyright 2025 © Smarter Shift Inc. and Energy Mix Productions Inc. All rights reserved.
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    Iraq Eliminates Customs Duties on Solar Imports to Boost Renewable Energy – News and Statistics – IndexBox

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    Iraq’s Council of Ministers has approved the removal of customs duties on solar energy systems brought into the country, according to the Iraqi News Agency. The Iraqi News Agency reported that the cabinet framed the decision as a way to support the shift toward renewable energy and to lower the costs of acquiring such systems.
    The change follows a formal proposal that Iraq’s Electricity Minister, Ali Saadi Waheeb, submitted to the Prime Minister last month seeking a cut in duties on solar energy systems. The rate had originally stood as high as 33% before being lowered to 5% in February this year, a reduction that covered photovoltaic panels, cables, inverters and lithium batteries. That step came after Iraq’s Central Bank moved earlier in the month to grant loans worth IQD 6 billion, equivalent to $4.6 million, for solar energy systems.
    The Iraqi News Agency’s latest update adds that the Ministry of Electricity has finished a draft set of regulations to govern how solar systems connect to the national grid. The agency said the rules, made up of 40 articles, are intended to set out mechanisms for grid interconnection and for the exchange of electrical energy between citizens and the national network. They would also allow citizens to link their solar systems to the grid through smart meters.
    The ministry says it has approached Iraq’s State Council to complete the legal drafting of the regulations, which would then go to the Council of Ministers for formal approval.
    Iraq’s solar market is building momentum. The country’s first solar module production line, located in the Karbala governorate of central Iraq, reached inauguration in July. A 300 MW solar project is under development in Karbala, with its first phase of 22 MW going live in September 2025. The largest solar project under development in the country, a planned 1 GW facility in the southeastern governorate of Basra, entered trial operation in March with the switching on of 61 MW.
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    Plan for solar power on Mukwonago farm raises residents' concerns – Milwaukee Journal Sentinel

    Plan for solar power on Mukwonago farm raises residents’ concerns  Milwaukee Journal Sentinel
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    Posted in Renewables | Leave a comment