How is demand for agri-PV systems developing at Next2Sun?

Marius Sinn: We are noticing strong demand. In 2024, we built systems with a total output of almost 20 megawatts and a further 20 megawatts are currently under construction. The potential for 2025 is even greater.

What kinds of farmers do you work with – larger agricultural companies or smaller farm businesses?

We actually work more with the smaller farms. Our project sizes range between two and six megawatts. Of course, we also have one or two larger projects every year. Many systems are realised as a result of our own project development, and as such we approach farmers in their capacity as landowners.

Don’t miss any important information about the solar energy transition in agriculture! Subscribe to our free newsletter.

How are these projects financed?

In some cases, customers finance their projects independently. Next2Sun’s own projects are usually financed by the triad of equity, citizen participation/crowdfunding and bank loans. Farmers often also invest in the projects personally.

How is this crowdfunding organised?

Next2Sun has its own investment platform. We also work together with the ecological financial services provider Grüne Sachwerte from Bremen. They have a great deal of experience in this field and can also carry out plausibility checks of projects to scrutinise them from the investors’ point of view.

Next2Sun and partner build first vertical agri-PV system in the US

The Next2Sun system has been available for quite some time. What technical developments have you made since the system was launched?

We started developing the vertical photovoltaic system over ten years ago and founded Next2Sun in 2015. Since then, we have continuously developed the entire system in terms of shading, installation efficiency and use of materials. Our developments have extended to the module design, and this year our own optimised Next2Sun modules became available for the first time. One of our latest developments is the larger, three-row system for wider row spacing and working distances.

The higher the system, the higher the wind forces. Could that become an issue?

That was indeed a challenge for a long time. That’s why we only built two rows for a very long time. But during the first trials with the three-row system, we realised that it works. Of course, the assembly then also becomes slightly more complex.

PV from field and barn: Our special for the dual harvest on farms

What is the height of the three-row systems?

The three-row system ranges in height from 4.2 to 5.0 metres, depending on the slope. If the slope is steeper, the system will be higher because the modules have to be horizontal. As a result, the element on the deep side is slightly higher.

What slopes can you cover?

We can build our standard system on slopes of up to 20 per cent. That’s equivalent to more than ten degrees when positioned perpendicular to the slope. Special solutions are also conceivable for even greater inclinations. If the system is positioned horizontally to the slope, there are no limits, although shading is different in comparison to a system that is perpendicular.

Vertical agri-PV plant wins Austrian Solar Prize 2023

How does the shading change in this case?

If the system is parallel to the slope, it receives less light from the rear on the side facing up the slope. However, it gets more light at the front. That’s why we need to choose another row spacing in this case. Perpendicularity to the slope is very interesting from a cultivation perspective, as farmers generally cultivate the land up the slope. Otherwise, soil erosion would increase.

How have you improved the shading problem within the system?

Recently, we have optimised both the module and the frame system to maximise light yield and minimise shading losses. This is what enables the above-average yields per kilowatt of the Next2Sun systems.

How flexible is the post-and-beam construction that constitutes the system, and how precise do the foundations have to be?

We offer various versions of our system to accommodate different terrain characteristics and row spacings. Both the size and the number of modules on top of each other can be varied. The foundation itself has to be precise in order to keep the distance between the posts as exact as possible.

Manufacturer Next2Sun signs cooperation agreements in India

What is the foundation for the posts?

As a rule, they are driven into the ground. The depth of the piles varies and depends on the project. Even within a project, we sometimes have different pile-driving depths, as we also have different wind loads within a system. These are higher at the edge than in the centre, and so we ram deeper at the edges than in the centre.

How much power is it possible to generate from an area with these different heights?

We usually get between 400 and 500 kilowatts per hectare.

And how does the height of the system affect the capacity? Is it the higher the system, the wider the distance between the rows?

If the system is higher, for example with the three-row system, the area power of the system also increases. The third module provides more shading and the module rows have to be placed wider apart. This is precisely why we developed the three-row system. In conventional farming, the row spacing is already typically wider. This enables us to construct higher without the risk of shading and thus achieve a better area coverage ratio.

When cultivating the area, what is the risk of the modules being damaged by falling stones?

So far, stone chipping has hardly caused any problems. In the past, the modules were built at a distance of 60 centimetres from the ground. However, due to the regulatory requirements for agri-PV in most countries, the modules have to keep a minimum distance of 80 centimetres from the ground. This also reduces the risk of stones crashing even further.

What are the typical row spacings?

To ensure that the modules shade each other as little as possible, the minimum spacing with the two-row system is eight metres. We usually install at a distance of ten metres between rows. However, we can also realise larger spacings. In this case, we are guided by the requirements of the agricultural use of the land. Smaller row spacings are also possible, but we have to specifically check how this affects the yield. Certainly in regions with higher solar irradiation, you can take more chances and still operate the system economically.

You’ve now also developed a fence system for consumers.

Yes, the Next2Sun premium solar fence is an excellent alternative to conventional fencing. Thanks to its clear design in anthracite or galvanised, with visually appealing square posts in which the cables completely disappear, and in combination with the new module, the fence fits in perfectly with both modern architecture and traditional buildings. Of course, we also offer our standard system as a single or double-row fence. This can be used to fence in the agri-PV systems as well as other agricultural areas or commercial and industrial properties.

In this case, will you build the fence completely around the area, including the north side?

We have the north side in mind in any case. Because we always build our systems in the direction of agricultural cultivation. This is not always strictly east-west orientated. Otherwise, it would be awkward for the farmer if a solar power system was installed diagonally across his field. In that case, we wouldn’t have the perfect yield curve. But that also has advantages. For example, the south-facing part of the system produces considerably more electricity in winter because it can better absorb the vertical rays and the flatter sun. In addition, there is no snow on the modules in winter and the yield is anyway much higher than with normal installations.

Unmanageable strips remain under the module rows. What effects do these strips have?

These are so-called old grass or biodiversity strips in which specific habitat structures can also be established, for example for small animals or beneficial insects. The strips typically have to be mown once a year.

What is the width of this strip?

It is usually one metre in width, 50 centimetres on each side. That’s enough for the farmers to cultivate the area without conflicting with the solar system. This is because farmers generally use GPS, which is very precise. The machines are also designed to work very rigidly and not to swerve. After all, farmers are also used to driving relatively precisely when sowing to avoid large overlaps.

In these conditions, the vertically mounted modules are unable to be perfectly aligned with the sun. What yields can farmers expect?

With our systems with bifacial modules, we generally achieve even higher yields throughout the year than a solar park with monofacial modules, which is usually facing south. This is because the vertical systems have two daily production peaks when orientated east-west. The counter-cyclical generation profile not only significantly reduces the immediate need to expand storage and grid capacities, but also helps to achieve higher electricity market prices than at midday.

Interview by Sven Ullrich.





Source link


PMT unveils what lies beneath.

In an industry where mounting systems often remain in the background, PMT shines a spotlight on the foundation of every successful open field solar installation. With PMT TITAN, its first ground-mounted system, the company exposes the innovation and strength beneath the surface – because real performance starts below the module.

The origin of Free Field Culture

As a cheeky nod to naturism, PMT’s “Free Field Culture” symbolises transparency and untapped potential. It’s more than a concept – it’s a commitment to rethinking how we use land. Fallow fields, commercial fringes, and rural plots become prime solar assets once activated by PMT TITAN’s technical precision and economic viability.

Where others see limits, PMT sees opportunities. PMT TITAN reflects a mindset shift: innovation begins where traditional systems stop.

The world’s best ground-mounted system*

*by PMT

© PMT 2025

Engineered for a new energy era

As global PV demand grows, conventional systems face limitations. PMT TITAN answers with a scalable, efficient, and economically sound solution – from small residual spaces to mid-size commercial projects. Because when it comes to impact, size isn’t everything.

Where others stop, PMT just gets started

PMT TITAN is PMT’s first fully standardised ground-mounted solution. Designed for rapid deployment, seamless logistics, structural quality and flexibility across diverse project scales, it makes full use of unused land – without compromising on quality or speed.

The naked truth

1. Outrageously simple
Bottom-up installation, no leaning over from above, minimal parts, easy screw access.

2. Shamelessly flexible
Clamp-based design adapts to any module size, tilt, or layout – without drilling.

© PMT 2025

© PMT 2025

3. Reliably secure
Continuous profiles with durable corrosion protection, no sawing or coating.

4. Lightning fast
Pre-assembled clamps and streamlined logistics ensure quick installation.

Rooted in reliability

Backed by over 15 years of PV expertise and manufactured entirely in Europe, PMT TITAN is built on trust, precision, and enduring quality. It embodies engineering that lasts, meeting the highest standards of reliability and performance.

© PMT 2025

Bold positioning for a bold solution

PMT’s “Free Field Culture” campaign is unapologetically direct – bold visuals, confident messaging, and a clear break from convention. While other manufacturers shyly cover their systems with modules or opt for sterile product shots, PMT proudly reveals what truly matters beneath the surface. The system’s form and function are laid bare – with nothing to hide.

A fresh perspective on ground-mounted PV

PMT TITAN isn’t just a system. It’s a statement of intent: to lead the energy transition through cutting-edge ground-mounted technology and to redefine what’s possible in open-field PV.

Unleash what’s underneath: true “Free Field Culture” by PMT. 





Source link


CKW, a Swiss provider of integrated energy and building technology solutions, has transformed unused satellite dishes on the premises of Leuk TDC, a Swiss telecom service provider, into advanced solar installations. Developed in collaboration with SolarEdge, the project highlights the potential of repurposing existing infrastructure for renewable energy.

Power supply complemented by rooftop solar system and hydropower

Located in the town of Leuk, Switzerland, Leuk TDC initiated the idea of using old satellite dishes on its premises – originally constructed in 1972 – as the foundation for a new solar plant to offset the energy needs of its power-hungry data centre. Recently installed, the plant comprises two satellite dishes, each fitted with 307 solar panels and generating around 110,000 kWh of clean energy per year.

AC/DC – not just a Rock ‘n’ Roll band

The company has also installed a rooftop solar system on the main building of its computing and data centre, generating an additional 555,000 kWh of solar power annually. Alongside solar, the data centre is also powered by energy from hydroelectric plants, meaning its entire energy demand is met with 100% renewable sources.

DC-optimised inverter solution with power optimisers

Given the complex orientation and inclination of the solar panels on the satellite dishes, shadows and uneven angles threatened to reduce the system’s efficiency. With traditional string inverters, overall performance is limited by the weakest panel in the string, meaning a single shaded panel could significantly lower energy yield.

SolarEdge to expand its products for installers and EPC

As a result, SolarEdge’s DC-optimised inverter solution was used, with Power Optimizers attached to the underside of each pair of solar panels. This allows the system to mitigate the effects of module mismatch on the satellite dishes, maximising energy production for Leuk TDC and ensuring the project’s financial viability.

SolarEdge

307 solar panels were installed on each of the two former satellite dishes.

Manuel Jossi, Deputy Head of Solar Technology for Central Switzerland at CKW, the installer of the solar plant, comments: “Having design flexibility with a solar installation is a huge benefit for installers. In complex cases such as these with uneven surfaces, without the use of Power Optimizers we simply would not have been able to achieve anywhere close to the level of energy being produced today. I recommend that others planning similar solar installations allocate sufficient time for planning and collaborate with trusted personnel to overcome any technical challenges.”

Following the sun’s path throughout the day

The move to solar underpins Leuk TDC’s commitment to sustainability, having already relied on hydropower to run the core of its operations for several years. As the data centre’s energy demand continues to grow year on year, the company plans to keep leveraging solar energy and hydropower to meet 100% of its energy needs.

Vienna’s DOCKS combines solar with sound insulation

This not only supports Leuk TDC’s environmental goals but also offers the company greater financial stability by reducing its dependency on fluctuating grid electricity costs. The company hopes the success of the satellite dish project will serve as an inspiring model for future infrastructure innovations in renewable energy.

Stay informed – subscribe to our free newsletters

John Harris, CEO at Leuk TDC, concludes: “The need for the satellite dishes were becoming obsolete, so we always knew we wanted to make use of them in some way or another. The design of the dishes, which allows them to be aligned both horizontally and vertically, proved ideal for a solar panel installation. By following the sun’s path throughout the day, these dishes optimise solar radiation absorption. Having installed them we get considerably more hours of electricity than conventional string system, and Power Optimizers enhance electricity production further.” (hcn)





Source link


CKW, a Swiss provider of integrated energy and building technology solutions, has transformed unused satellite dishes on the premises of Leuk TDC, a Swiss telecom service provider, into advanced solar installations. Developed in collaboration with SolarEdge, the project highlights the potential of repurposing existing infrastructure for renewable energy.

Power supply complemented by rooftop solar system and hydropower

Located in the town of Leuk, Switzerland, Leuk TDC initiated the idea of using old satellite dishes on its premises – originally constructed in 1972 – as the foundation for a new solar plant to offset the energy needs of its power-hungry data centre. Recently installed, the plant comprises two satellite dishes, each fitted with 307 solar panels and generating around 110,000 kWh of clean energy per year.

AC/DC – not just a Rock ‘n’ Roll band

The company has also installed a rooftop solar system on the main building of its computing and data centre, generating an additional 555,000 kWh of solar power annually. Alongside solar, the data centre is also powered by energy from hydroelectric plants, meaning its entire energy demand is met with 100% renewable sources.

DC-optimised inverter solution with power optimisers

Given the complex orientation and inclination of the solar panels on the satellite dishes, shadows and uneven angles threatened to reduce the system’s efficiency. With traditional string inverters, overall performance is limited by the weakest panel in the string, meaning a single shaded panel could significantly lower energy yield.

SolarEdge to expand its products for installers and EPC

As a result, SolarEdge’s DC-optimised inverter solution was used, with Power Optimizers attached to the underside of each pair of solar panels. This allows the system to mitigate the effects of module mismatch on the satellite dishes, maximising energy production for Leuk TDC and ensuring the project’s financial viability.

SolarEdge

307 solar panels were installed on each of the two former satellite dishes.

Manuel Jossi, Deputy Head of Solar Technology for Central Switzerland at CKW, the installer of the solar plant, comments: “Having design flexibility with a solar installation is a huge benefit for installers. In complex cases such as these with uneven surfaces, without the use of Power Optimizers we simply would not have been able to achieve anywhere close to the level of energy being produced today. I recommend that others planning similar solar installations allocate sufficient time for planning and collaborate with trusted personnel to overcome any technical challenges.”

Following the sun’s path throughout the day

The move to solar underpins Leuk TDC’s commitment to sustainability, having already relied on hydropower to run the core of its operations for several years. As the data centre’s energy demand continues to grow year on year, the company plans to keep leveraging solar energy and hydropower to meet 100% of its energy needs.

Vienna’s DOCKS combines solar with sound insulation

This not only supports Leuk TDC’s environmental goals but also offers the company greater financial stability by reducing its dependency on fluctuating grid electricity costs. The company hopes the success of the satellite dish project will serve as an inspiring model for future infrastructure innovations in renewable energy.

Stay informed – subscribe to our free newsletters

John Harris, CEO at Leuk TDC, concludes: “The need for the satellite dishes were becoming obsolete, so we always knew we wanted to make use of them in some way or another. The design of the dishes, which allows them to be aligned both horizontally and vertically, proved ideal for a solar panel installation. By following the sun’s path throughout the day, these dishes optimise solar radiation absorption. Having installed them we get considerably more hours of electricity than conventional string system, and Power Optimizers enhance electricity production further.” (hcn)





Source link


CKW, a Swiss provider of integrated energy and building technology solutions, has transformed unused satellite dishes on the premises of Leuk TDC, a Swiss telecom service provider, into advanced solar installations. Developed in collaboration with SolarEdge, the project highlights the potential of repurposing existing infrastructure for renewable energy.

Power supply complemented by rooftop solar system and hydropower

Located in the town of Leuk, Switzerland, Leuk TDC initiated the idea of using old satellite dishes on its premises – originally constructed in 1972 – as the foundation for a new solar plant to offset the energy needs of its power-hungry data centre. Recently installed, the plant comprises two satellite dishes, each fitted with 307 solar panels and generating around 110,000 kWh of clean energy per year.

AC/DC – not just a Rock ‘n’ Roll band

The company has also installed a rooftop solar system on the main building of its computing and data centre, generating an additional 555,000 kWh of solar power annually. Alongside solar, the data centre is also powered by energy from hydroelectric plants, meaning its entire energy demand is met with 100% renewable sources.

DC-optimised inverter solution with power optimisers

Given the complex orientation and inclination of the solar panels on the satellite dishes, shadows and uneven angles threatened to reduce the system’s efficiency. With traditional string inverters, overall performance is limited by the weakest panel in the string, meaning a single shaded panel could significantly lower energy yield.

SolarEdge to expand its products for installers and EPC

As a result, SolarEdge’s DC-optimised inverter solution was used, with Power Optimizers attached to the underside of each pair of solar panels. This allows the system to mitigate the effects of module mismatch on the satellite dishes, maximising energy production for Leuk TDC and ensuring the project’s financial viability.

SolarEdge

307 solar panels were installed on each of the two former satellite dishes.

Manuel Jossi, Deputy Head of Solar Technology for Central Switzerland at CKW, the installer of the solar plant, comments: “Having design flexibility with a solar installation is a huge benefit for installers. In complex cases such as these with uneven surfaces, without the use of Power Optimizers we simply would not have been able to achieve anywhere close to the level of energy being produced today. I recommend that others planning similar solar installations allocate sufficient time for planning and collaborate with trusted personnel to overcome any technical challenges.”

Following the sun’s path throughout the day

The move to solar underpins Leuk TDC’s commitment to sustainability, having already relied on hydropower to run the core of its operations for several years. As the data centre’s energy demand continues to grow year on year, the company plans to keep leveraging solar energy and hydropower to meet 100% of its energy needs.

Vienna’s DOCKS combines solar with sound insulation

This not only supports Leuk TDC’s environmental goals but also offers the company greater financial stability by reducing its dependency on fluctuating grid electricity costs. The company hopes the success of the satellite dish project will serve as an inspiring model for future infrastructure innovations in renewable energy.

Stay informed – subscribe to our free newsletters

John Harris, CEO at Leuk TDC, concludes: “The need for the satellite dishes were becoming obsolete, so we always knew we wanted to make use of them in some way or another. The design of the dishes, which allows them to be aligned both horizontally and vertically, proved ideal for a solar panel installation. By following the sun’s path throughout the day, these dishes optimise solar radiation absorption. Having installed them we get considerably more hours of electricity than conventional string system, and Power Optimizers enhance electricity production further.” (hcn)





Source link


Installed in partnership with Trakia MT on a solar farm, the system features 90 Sigenergy C&I hybrid inverters combined with the SigenStack modular storage solution. The project demonstrates the scalability of storage technology.

SigenStack replaces bulky containerised systems with stackable 12 kWh battery packs. With plug-and-play connectors and tool-free installation, the system eliminates the need for complex wiring, cranes and heavy machinery.

Yi Ding of Sigenergy: Innovative DC storage system for C&I – watch our video

Thanks to this design, the entire 20 MWh system was installed in just 10 days and fully commissioned within two days. Galina Peycheva-Miteva, owner of Trakia MT Ltd., noted: “The installation was incredibly smooth – more like assembling building blocks than deploying industrial infrastructure. This modular design is a game-changer for the C&I energy storage sector.”

Safety engineered at the pack level.

Each 12 kWh battery pack features six layers of protection, including temperature sensors, internal fire suppression units, aerogel insulation, decompression valves, high-temperature-resistant insulation pads and smoke detectors. This configuration enables early detection of thermal runaway at pack level and initiates a rapid, localised response within seconds.

New Sigenergy factory aims to reinforce global supply chain

The inverter platform includes ultra-fast 500 ms anti-backflow protection and long-range arc fault circuit interrupter (AFCI) technology, capable of detecting faults up to 500 metres away.

Sigenergy

A birds-eye view of the project near the Bulgarian Black Sea coast.

To further validate its safety performance, Sigenergy partnered with the global assurance provider Intertek to publish a C&I Safety White Paper. The results confirm full compliance with UL 9540A and IEC 62619, structural stability under extreme conditions and sustained operational efficiency above 95%.

Discover more solar storage innnovations on pv Europe

Other notable features include an IP66 rating for dust and water resistance, as well as real-time monitoring via a cloud-based platform, which significantly reduces the need for on-site inspections. Maintenance is also streamlined: faulty battery packs can be replaced individually within two hours, without the need for full system diagnostics or on-site technician intervention. This reduces downtime, simplifies spare parts logistics and minimises operational costs. (hcn)





Source link


Installed in partnership with Trakia MT on a solar farm, the system features 90 Sigenergy C&I hybrid inverters combined with the SigenStack modular storage solution. This project demonstrates the scalability of storage technology.

SigenStack replaces bulky containerised systems with stackable 12 kWh battery packs. With its plug-and-play connectors and tool-free installation, the system eliminates the need for complex wiring, cranes and heavy machinery.

Yi Ding of Sigenergy: Innovative DC storage system for C&I – watch our video

Thanks to this design, the entire 20 MWh system was installed in just 10 days and was fully commissioned within two days. Galina Peycheva-Miteva, owner of Trakia MT Ltd., noted: ‘The installation was incredibly smooth — more like assembling building blocks than deploying industrial infrastructure. This modular design is a game-changer for the C&I energy storage sector”.

Safety engineered at the pack level.

Each 12 kWh battery pack features six layers of protection, including temperature sensors, internal fire suppression units, aerogel insulation, decompression valves, high-temperature-resistant insulation pads and smoke detectors. This configuration enables the early detection of thermal runaway at pack level and initiates a rapid, localised response within seconds.

New Sigenergy factory aims to reinforce global supply chain

The inverter platform includes ultra-fast 500 ms anti-backflow protection and long-range arc fault circuit interrupter (AFCI) technology, which is capable of detecting faults up to 500 metres away.

Sigenergy

Aerial view of the project near the Bulgarian Black Sea coast.

To further validate its safety performance, Sigenergy partnered with the global assurance provider Intertek to publish a C&I Safety White Paper. The results confirm full compliance with UL 9540A and IEC 62619, structural stability under extreme conditions and sustained operational efficiency of over 95%.

Discover more solar storage innnovations on pv Europe

Other notable features include an IP66 rating for dust and water resistance, as well as real-time monitoring via a cloud-based platform, which significantly reduces the need for on-site inspections. Maintenance is also streamlined: faulty battery packs can be replaced individually within two hours without the need for full system diagnostics or on-site technician intervention. This reduces downtime, simplifies spare parts logistics and minimises operational costs. (hcn)





Source link



In recent years, the Austrian solar industry has occasionally met for conferences at the Ernst Happel Stadium in Vienna. Now, future events at the stadium can finally be powered by solar energy after around 9,300 solar modules were installed on the roof of the venue, 20 metres above ground. The project has transformed the roof into an energy powerhouse that will supply 3,880 megawatt hours of clean solar power every year.

More electricity generated than consumed

What’s more, this power comes to more electricity than the stadium uses overall. “Not so long ago, an emission-free stadium was just a vision, but now we are on the verge of making it a reality,” says Vienna’s City Councillor for Sport, Peter Hacker. “I am impressed by how quickly and precisely the installation was completed. Sustainability and innovation are key criteria in the renovation of Vienna’s sports facilities. The Happel Stadium will generate more electricity than it consumes, making an important contribution to environmental and climate protection in our city.”

Three-dimensional model produced

The road to a photovoltaic stadium roof was not easy, not least because it is a listed building. Moreover, the realisation of the project involved precision work. Each trapezoidal sheet has its own dimensions due to the elliptical shape of the roof, require three-dimensional modelling before work could begin in earnest.

Vienna’s DOCKS combines solar and noise protection

Components transported individually to the roof

Due to the low load-bearing capacity, it was not possible to place pallets on the listed roof. As a result, the components – including modules, 80,000 trapezoidal sheet metal rails and over 5,000 optimisers – were initially stored inside the stadium. These were then gradually hoisted to a height of over 20 metres using scissor lifts, carried manually to their locations and assembled on the spot.

Top information for you daily business – subscribe to our free newsletter

Installation had to be quick

The time frame was also a challenge. The system had to be erected between the end of November and the beginning of March, when no events take place on the open field. Snow, low night-time temperatures combined with high humidity and several periods of strong wind caused work to be interrupted for days at a time. Due to an international match between Austria and Serbia on 20 March 2025, the installation had to be completed much faster than originally planned.

C&I solar rooftops – Design software saves time and more

Using surplus electricity for heating

With the new photovoltaic system and geothermal energy under the renovated training pitches – 270 boreholes at a depth of 150 metres and ground collectors covering an area of 25,000 cubic metres – the foundations have now been laid for an emission-free stadium. In cooperation with Wien Energie and Wiener Netzen, wiring of the solar power system is currently being completed.

Vienna Airport aims to become climate-neutral

Work is scheduled to be finished in late 2025. Once commissioned, all generated electricity will be fed into the existing stadium network. The City of Vienna is also planning a network with several heat pumps and storage facilities as well as a connection to the neighbouring stadium swimming pool, allowing the stadium operator to use all surplus solar energy on site. (su/hcn)





Source link



The announcement follows the success of an award-winning three-month trial of the POSTX service with Segen customer E.ON last year. The trial saw E.ON achieve a 3.1-ton reduction in CO2 emissions and a 1,400% improvement in delivery efficiency driven by advanced routing and optimised loading processes. As a result, E.ON has selected Segen and POSTX as its preferred delivery service for residential customers.

Segen UK: Triple deck trailer for CO2- and cost efficient transport of PV modules

POSTX’s mission is to transform the way the world moves goods by providing transportation infrastructure to improve the sorting, loading and last-mile delivery of heavy goods and road freight. Product is transported in aerodynamically-designed pods (box trailers) pulled by electric SUVs, eliminating the need for traditional ICE vans and trucks and providing a seamless, emission-free delivery process. Each electric SUV can cover over three hundred miles on a single charge and can be fully charged in just 20 minutes, ensuring rapid turnaround times.

Replace 3.5 and 7-tonne trucks

The low-profile pods are designed to facilitate easy roll-in and roll-out of cargo without the need for forklifts, minimising the risk of product damage and accelerating the loading and unloading process. Future plans include implementing a ‘drop-and-swap’ network for longer distances, enabling the transfer of loaded pods between vehicles. This will reduce the number of loading and unloading cycles required, further reducing handling risks, shortening lead times and improving overall delivery efficiency and quality.

Max Glaisher, CEO and Co-Founder of POSTX, comments: “Every year, around five million delivery trucks clog UK roads—many running far below capacity and spending unnecessary time in transit due to outdated routing methods. These inefficiencies lead to excessive fuel consumption and increased emissions. POSTX offers a game-changing solution: fewer trucks, smarter routes, and better use of existing assets. Our mission is to replace all 3.5T to 7.5T trucks currently on UK roads with pods pulled by electric vehicles, significantly reducing emissions and transforming delivery operations.”

Start in the South Central and South East regions of the UK

POSTX deliveries are already available to Segen customers in the South Central and South East regions of the UK and will be expanded to other regions throughout 2025. The POSTX platform allows deliveries to be tracked in real-time, with timed two-hour delivery slots to be introduced later this year. Additionally, the service will be expanded to include waste collections post-install as well as a trailer drop solution, which is currently in the final stages of development.

New distribution partnership for storage solutions in UK and Ireland

Commenting on the success of the trial last year and E.ON’s decision to use Segen and POSTX as its preferred delivery method, Steven Cotterill, Global Category Manager at E.On, says: “At E.ON, we are committed to achieving net-zero operations, with sustainable logistics being a crucial part of that journey. Last year’s pilot with Segen and POSTX not only exceeded our expectations in terms of reducing carbon emissions, but it also improved delivery efficiency and removed key friction points for our customers.”

The announcement follows a trial with Segen customer E.ON last year which achieved a 3.1-ton reduction in CO2 emissions and a 1,400% improvement in delivery efficiency (hcn)





Source link


In the Holma district of Malmö there is a large residential complex at Hyacintgatan 45. It was recently equipped with photovoltaics, like previous similar large-scale projects. The quarter was built in the 1970s as part of the so-called million dollar program. In order to create affordable housing, numerous settlements were planted on arable land.

Join us!: Webinar on 14th April 2025: Simple solutions for complex PV projects – with K2 Systems

15 buildings with 540 apartments

In this case it is the owners’ association Riksbyggen Brf Malmöhus 24, which includes 540 apartments. The solarization project was planned and installed by the BBK company.

Video: Presenting the BBK Group from Trelleborg, Sweden

In order to meet the high requirements, BBK first analyzed the market for solar components. “We chose solar inverters from Kostal and modules from REC from Norway,” says Daniel Ohlin, CEO of the BBK Group. “This guarantees high quality. It was also important to us that if we have any questions or problems, experienced and local technical experts can help us if necessary.” The selection of the inverters was preceded by extensive tests of various products and suppliers. The decisive factors were efficiency and service.

Get recent news and usable information for your solar business!

Some roofs more than 30 meters high

The Riksbyggen Brf Malmöhus 24 district consists of 15 buildings with different floor plans, some of which are higher than 30 meters. “We started installing solar modules on the first building in 2016,” Ohlin reflects. “We have equipped another building every year since then.”

Kostal Solar Electric

The solar modules are mounted parallel to the roof pitch using the Dome Zero from K2 Systems.


Quality and service also played a crucial role in the selection of assembly technology. “In Sweden, no one has any technical experience with installation on such tall buildings,” reports the manager. “The wind loads are very high and the conditions for installation are sometimes extreme.”

Do you want to know more about PV in Sweden? Look here!

Modules installed parallel to the roof

So far, 2048 N-Peak and Twinpeak 5 solar modules have been installed by REC. The substructure comes from K2 Systems. The solar modules were not mounted on stands, but rather mounted parallel to the roof pitch using the Dome Zero from K2 Systems. “This meant we didn’t need approval from the building authorities,” explains the manager. “The system also requires far fewer additions or fastenings to the solid wood roof substructure.”

All systems have the same structure and components to ensure longevity and reduce maintenance costs. “The installation went smoothly in all projects because all suppliers supported us in the planning,” praises Ohlin. “We were and are in constant contact to coordinate data and requirements.”

Borgholm is the solar city of Sweden

Around 650 kilowatts installed so far

Six of 14 buildings are now equipped with solar technology. The solar modules produce 650 kilowatts. 17 inverters were installed, EPC and Piko CI. All in all, 550,000 kilowatt hours of clean electricity have been generated so far.

Kostal provided the solar inverters.

Kostal Solar Electric

Kostal provided the solar inverters.

It was important to planners and owners that the projects were economically viable. “At the beginning we planned to break even in eight years,” says Ohlin. “When electricity prices skyrocketed, we broke even after just four to five years.”

As a result, the systems that were first installed have already paid for themselves. The solar power goes via the house power distributors into the apartments and elevators, into the lighting of the stairwells and garages and into charging points for electric cars. (HS/hcn)

Learn more about BBK group on the company‘s website!





Source link