These sites, all located in the province of Badajoz, have a combined electrolysis capacity of around 1.5 GW. Overall, these plants are capable of generating more than 75,000 tonnes of renewable hydrogen per year.

Also see: 3H2 pilot project – 1,350 kg green hydrogen per day

According to the latest survey conducted by Spanish hydrogen industry association AeH2, DH2 Energy has the largest portfolio of renewable hydrogen production facilities under development in both Spain and Extremadura.

Favourable conditions in Extremadura

“Extremadura is one of the Spanish regions with greatest potential for renewable hydrogen production because it possesses all the necessary solar and hydro resources in abundance. What’s more, there’s a willingness to encourage deployment on the part of both the regional government and the local councils in the towns where DH2 Energy is building plants”, DH2 Energy’s Managing Director, Marcos López-Brea Baquero says.

“Extremadura also has a favourable regulatory framework that includes specific legislation designed to promote renewable hydrogen. In addition, a section of the hydrogen transport network planned by Enagás will be built in Extremadura. This national infrastructure is set to give renewable hydrogen a major boost in coming years”, López-Brea Baquero underlines.

DH2 Energy

General Director of DH2 Energy, Marcos López-Brea Baquero (right), at the Green Hydrogen panel held at the Expoenergea fair, in Badajoz.

DH2 Energy’s most advanced project in development in Extremadura is Raviza, located in the municipalities of Hornachos, Puebla del Prior and Ribera del Fresno. Raviza will produce 25,000 tonnes of renewable hydrogen per year.

Further 3 projects under development in Extremadura

DH2 Energy has a further 3 projects under development in Extremadura: Badajoz 2, which will generate around 8,500 tonnes of renewable hydrogen per year, is located in Mérida; Badajoz 3, set to produce approximately 17,000 tonnes of renewable hydrogen per year, spans the municipalities of Badajoz, Mérida and La Roca de la Sierra; and finally, the output from Badajoz 4, located solely in Badajoz, will amount to 25,000 tonnes per year.

Also see: Increase the rate of expansion for renewables in Europe by a factor 5

DH2 Energy is also the developer of one of the most advanced commercial renewable hydrogen facilities currently planned in Spain: the Hysencia 35 MW electrolysis plant, construction of which will begin in the first half of 2025. Hysencia is a pioneering initiative that won the first European auction held by the Innovation Fund financed by the European Hydrogen Bank.

Headquartered in Madrid, DH2 Energy operates on the Iberian Peninsula and in France, Mexico and Uruguay, among other markets. (hcn)





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The process started middle of November with the publication of the documentation on the public MIBGAS website for those interested in participating in this open auction.

The auction is aimed at all companies interested in acquiring renewable hydrogen, both nationally and internationally, without restrictions on the type of application for the hydrogen. Different lots will be offered depending on the volume of supply and the duration of the contract, starting from a base price for each lot.

The first phase is the pre-qualification phase. The next phase will be the qualification stage, and subsequently, there will be another phase solely for the qualified companies to submit their bids. This final phase will be competitive. As a result, the companies that present the best offers and are selected, along with DH2 Energy, will negotiate the final agreements bilaterally, which may lead to the corresponding contracts.

49 MW PV plant with 35 MW electrolysis capacity

Participants will be able to submit bids to purchase the renewable hydrogen generated by DH2’s Hysencia plant. The plant is in Aragón and construction is expected to begin in mid-2025, with operations anticipated to commence in the first half of 2027.

Also see: DH2 Energy receives environmental permit for green hydrogen plant

The Hysencia plant, with an electrolysis capacity of 35 MW, 49 MW of photovoltaic power and 10 MW of grid connection is a pioneering initiative that was a winner in the first European auction, funded by the Innovation Fund under the umbrella of the EU Hydrogen Bank. Hysencia, which obtained integrated environmental approval this year, is one of the first commercial green hydrogen projects on the Iberian Peninsula. The renewable hydrogen produced by Hysencia will help decarbonise the industrial and mobility sectors.

Stimulate an emerging market

The chairman of MIBGAS, Raúl Yunta, is hopeful that projects like these will stimulate an emerging market essential for the decarbonisation process and energy transition.  “At MIBGAS we are convinced of the potential that green hydrogen has, and projects like Hysencia are crucial to start laying the foundations for a renewable hydrogen market. We are delighted to help drive decarbonisation by developing the green hydrogen market”.

Also see: Partnership for large-scale electrolysis in Europe 

For his part, the managing director of DH2 Energy, Marcos López-Brea Baquero, stated: “For the first time, the operator behind the Iberian market is launching an auction for renewable hydrogen, and it does so with the production from DH2 Energy’s Hysencia plant, which will serve as a benchmark in the sector. This auction marks a milestone for the development of renewable hydrogen, and we are confident that it will help stimulate demand and advance the establishment of a stable market for renewable hydrogen”. (hcn)





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In their study on the European energy transition, researchers from the Jülich System Analysis have for the first time also included the decarbonization needs of air and sea transport in order to achieve greenhouse gas neutrality in Europe by 2050 in line with the Green Deal. Accordingly, the demand for green hydrogen for the production of synthetic fuels (Power to Liquid, PtL) is half higher than in previous studies.

The Jülich research team estimates that in 2050, Germany alone will need 700 terawatt hours (TWh) of hydrogen annually to produce PtL. This estimate takes into account the high efficiency losses in PtL production. The basic demand for hydrogen, which is needed for the decarbonization of industry, to cover periods of dark and cloudy weather, and for other applications, is in line with earlier studies in 2050 at around 400 TWh per year. Overall, it is expected that green hydrogen production in Europe in 2050 will require about 44 percent of electricity generation (4600 TWh).

However, institute director Detlef Stolten expects that from 2050 onwards, the direct, more efficient use of hydrogen via fuel cells will also increasingly come into play – at least in shipping – and that the high proportion of hydrogen for PtL production can thus be reduced again.

Strong together

To meet the high demand for green hydrogen and the correspondingly higher demand for renewable electricity, the Jülich research team is counting on the expansion of the European energy network. This could make Spain, Norway, Italy and Greece important hydrogen exporters for other European countries in the future. According to the study, the main customer is Germany, with an import quota of 77 percent (550 TWh, 2050), followed by the Netherlands.

Also see: Spain – DH2 Energy receives environmental permit for green hydrogen plant

However, a central prerequisite for such a European hydrogen market, with an estimated volume of 100 billion euros, is an even more massive expansion of renewable electricity generation in Europe. The study calculates that the expansion rates for renewables in Europe would have to be increased by a factor of five. The Jülich research team also emphasizes the advantages of a European network for renewable electricity, both for reasons of security of supply and economic efficiency. For Germany, a domestic electricity supply of 66 percent is forecast for 2050 (430 TWh of imports).

European hydrogen production competitive

The study concludes that Europe could cover its own demand for electricity and hydrogen at low cost. This would give Europe the option of securing its own supply without relying on imports from other countries.

European hydrogen production would be competitive up to an import price of 3.20 euros per kilogram in 2030. However, this would only apply if renewable energies were expanded more. Otherwise, the import of green hydrogen or its products would be necessary, which would increase the total costs by six percent compared to a European solution.

More transport networks and H2 storage

In estimating the costs, the Jülich researchers also take into account the need to expand the infrastructure, especially the transport networks and the interconnection capacities (between countries). For Germany alone, additional interconnection capacities of 90 gigawatts (GW) for electricity and 200 GW for hydrogen are estimated by 2050. Stolten emphasized that the implementation of existing grid expansion plans is now crucial as a first step.

Also see: IEA calls for more investment in grids and energy storage

In addition, hydrogen could be stored in salt caverns to bridge dark and cloudy periods and seasonal fluctuations in wind and solar power. According to the study, existing underground storage facilities for natural gas could be converted for hydrogen storage. Nevertheless, the construction of more than 50 TWh of additional storage capacity in Europe would be necessary, which would correspond to the construction of around 200 salt caverns, 80 of which would be in Germany.

Nuclear power too expensive

According to the analysis by the Jülich researchers, nuclear energy does not play a significant role in a secure, climate-neutral and cost-effective European energy supply. It is not competitive compared to photovoltaics and wind power, even when storage and increased transport costs are taken into account. This applies at least as long as the real investment costs for nuclear power plants do not fall below 6,600 euros per kilowatt (kW).

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Even the newest Finnish nuclear power plant, Olkiluoto 3, is above this threshold at €6,875/kW. The French reactor Flamanville-3 is at €10,875/kW, and Hinkley Point C (Great Britain) is at €17,500/kW. Stolten emphasized that this calculation does not include the costs for disposal, which has not yet been clarified.

At a panel discussion held in Berlin to present the study “European Energy Transition – Germany at the Heart of Europe” of Jülich Research Center (Forschungszentrum Jülich), Stolten also recently expressed skepticism about the much-hyped Small Modular Reactors (SMRs). According to the Jülich institute director, it is not to be expected that these could be operated economically in Europe by 2050 with the appropriate safety standards. (hcn)





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The pause in workforce growth is due to slowing solar installations, as the impacts of the energy crisis are lessened, and the roll out of solar is hampered by limited flexibility* in the system. At the upstream end of the value chain, European solar manufacturing has been facing significant challenges in the last 12 months, leading to production pauses and workforce reduction.

Walburga Hemetsberger, CEO of SolarPower Europe said: “Solar can offer more than 1 million workers a meaningful, quality career in their local communities. These job opportunities can’t be taken for granted. We urge the new EU leadership to improve regulatory conditions to add more solar, support EU solar manufacturers, and develop Europe’s strategy around solar skills.”

1 million solar jobs by 2027

The annual EU Solar Jobs Report has revised last year’s projection that the EU would reach 1 million solar jobs by 2025. Instead, the report identifies the need to reach this size of workforce by 2027, in order to deliver 88.5 GW of annual solar installations by then, in line with the continent’s competitiveness, climate, and energy security goals.

Also see: Record annual growth of renewable jobs in 2023

At a national level, there has also been movement. Reflecting the 104% growth in its solar market from 2022 to 2023, Germany’s solar workforce surged to become the largest workforce in Europe, with 154,000 solar workers. Poland, previously the largest, fell to second place with 113,000 as its job-intense residential market slowed. Spain is in third place, with the emphasis on its less job-intense utility-scale sector delivering more GW capacity for fewer workers.

Also interesting: Central and Eastern Europe increasingly in the solar gigawatt class

To ensure that the solar workforce remains ready to deliver the continent’s primary decarbonisation tool through the second half of the decade, the EU Solar Jobs Report makes a number of policy recommendations:

Policy recommendations

1. Assessing the exact need for workers and skillsets at national level. 

2. Creating a pan-renewable energy career path.

3. Including an electrification skills strategy under the upcoming EU Electrification Action Plan.

4. Boosting the visibility and allure of STEM education and careers.

5. Retraining workers from legacy-fossil industries. 

6.  Supporting the circulation of skills in Europe.

7. Developing solar-specific training within electrical professional training. (hcn)





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How is the business of large solar roofs for commercial customers currently developing?

Joachim Goldbeck: Industrial roofs are doing well, although new construction in industry is currently slowing down. We are doing well with the installation of solar systems on the roofs of existing buildings, and projects are running continuously.

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Will the solar package bring more momentum to this market segment?

The tenders for solar roofs have been expanded, that is now clear. The supply of electricity to tenants and shared systems has also been simplified. In the case of solar roofs, our industrial and commercial customers often focus on their own consumption of solar power. The situation is different for project developers or investors who own large logistics halls. Here, feed-in is the priority. In both cases, an appropriate feed-in tariff is important to ensure economic profitability.

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How are ground-mounted solar parks developing?

The demand is enormous. We have large and well-developed projects that we are implementing. However, grid connections are becoming scarce. Negative electricity prices are also a poor fit with the Power Purchase Agreement (PPA) business model. However, there is a strong pull in this market. Major players have built up larger project pipelines.

Some analysts see major challenges for the large ground-mounted parks due to the problems you mentioned …

We will see whether the prophecies of doom come true or whether the bulls in the market are right. Because we need a lot more solar power, for example for electrical heat supply or e-mobility. Or the growing demand for electricity due to the increasing volumes of data resulting from artificial intelligence. Electricity is becoming increasingly important in industry, for example in the production of steel.

Move On Energy puts Witznitz energy park into operation

Could large storage batteries boost the expansion of solar parks?

As an EPC, we are currently building a stand-alone battery system for a customer as pure grid storage. This can currently be presented with exciting business models, even without a solar field. But battery storage systems will also play a growing role in solar projects. Hybrids of wind and solar can make better use of grid connection points, supported by large electricity storage systems. That will come, or is already underway.

How do you see the market developing in other countries? Which ones are particularly promising?

Goldbeck Solar has been very strong in the Netherlands for years. We have very large projects on the books there, especially on open land. I expect demand to change in a year or two. We assume that agri-PV will gain in importance. We will see what is grown underneath. We call this agrivoltaics. Because the interests of farmers are taken into account, it could be easier to obtain approval for this in the future than for solar parks on greenfield sites, for example.

Podcast Solar Investor’s Guide #1: Thomas Schoy on problems with grid connection

Which other markets are exciting for you?

Poland is just getting going again. This market stuttered for some time and was delayed. Now we have very nice projects there. We also see very good prospects in Ukraine once the war is over. We have set up a joint venture with a partner to develop this market. However, there are still a number of unanswered questions, such as federal guarantees that also cover war damage.

There is a glaring lack of electricity in Ukraine, the infrastructure has been destroyed. Solar systems should actually be the first choice for reconstruction, shouldn’t they?

We started the joint venture to develop this market. So far, there are no models like PPAs in Ukraine. Private electricity traders have only been licensed for two years. Although many investors are showing some interest, it’s still a lot of talk. Martial law is currently in force and the electricity grid is very unstable. Electricity sales to local companies are not permitted in euros, only in the national currency, the hryvnia. We need the risks to be hedged by politicians before any real investment can be made.

Download free of charge (PDF): Witznitz Energy Park – New opportunity for old spoil tip

You have built many plants in the UK. What impact has Brexit had?

The UK was a strong market between 2011 and 2016. After a few weak years, we now have some good projects on our doorstep again, although many processes are definitely more complex. It is very difficult to find the right workers. In the past, many fitters from Poland or Ukraine worked in the UK, which was possible within the EU. Brexit has made this much more difficult. Taxes, customs and so on have also become more complicated.

We’ve seen similar ups and downs in Spain. Is recovery in sight there?

We are currently building eleven megawatts on Mallorca and 30 megawatts on the mainland. We are in talks about another 30 megawatt project. However, Spain is currently being stormed by project providers. This is causing the PPA price to fall. We have high quality standards, for example for cable technology. If only the lowest price counts in the market, the situation is not healthy. We need to identify customers who are prepared to value higher quality and longevity.

Interview by Heiko Schwarzburger





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This marks a remarkable 40% increase from the previous year, highlighting the growing momentum around sustainable energy sourcing among European businesses.

Spain and Germany emerged as frontrunners, collectively accounting for approximately 50% of the total volumes in 2023. Spain retained its position as the largest PPA market. In 2023, PPAs in Spain added an extra 2.77 GW to the energy system. 2nd top last year was Germany with 2.04 GW new capacity. Other significant growth was seen in France (0.78 GW), the United Kingdom (0.62 GW), and Sweden (0.36 GW). Looking ahead, Germany is poised to challenge Spain for the title of the most active PPA market in 2024.

In a significant development, three new countries – Hungary, Slovenia, and Portugal – entered the PPA market in 2023, further diversifying the landscape. This expansion follows the entry of Bulgaria, Croatia, Austria, and Romania into the corporate renewable PPA market in 2022.

Industry diversification fuels corporate renewable growth in 2023

The top corporate offtaker sectors in 2023 were led by heavy industry (2.9 GW), followed by ICT (2.5 GW), retail (0.8 GW), telecoms (0.7 GW), and engineering and technology (0.5 GW). This diversification underscores the attractiveness of PPAs across industries. There was significant PPA growth amongst automotive, food and drinks, and retail companies.

RE-Source

The corporate renewable PPA market in Europe saw a 40% growth in 2023.

Spain and Germany emerged as frontrunners, collectively accounting for approximately 50% of the total volumes in 2023. Spain retained its position as the largest PPA market. In 2023, PPAs in Spain added an extra 2.77 GW to the energy system. 2nd top last year was Germany with 2.04 GW new capacity. Other significant growth was seen in France (0.78 GW), the United Kingdom (0.62 GW), and Sweden (0.36 GW). Looking ahead, Germany is poised to challenge Spain for the title of the most active PPA market in 2024.

In a significant development, three new countries – Hungary, Slovenia, and Portugal – entered the PPA market in 2023, further diversifying the landscape. This expansion follows the entry of Bulgaria, Croatia, Austria, and Romania into the corporate renewable PPA market in 2022.

Industry diversification fuels corporate renewable growth in 2023

The top corporate offtaker sectors in 2023 were led by heavy industry (2.9 GW), followed by ICT (2.5 GW), retail (0.8 GW), telecoms (0.7 GW), and engineering and technology (0.5 GW). This diversification underscores the attractiveness of PPAs across industries. There was significant PPA growth amongst automotive, food and drinks, and retail companies.

Did you miss that? Clean energy buyers call for tripling of renewables capacity by 2030

“The record-breaking performance of the EU corporate PPA market in 2023 demonstrates the significant appetite for renewable energy procurement. Following years of electricity market volatility, and the growing demand for green electricity, the corporate PPA market is growing like never before. We will continue to support more companies to sign a PPA and look forward to seeing new trends accelerate in 2024,” said Annie Scanlan, RE-Source Policy and Impact director from RE-Source. (hcn)





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In November 2022, the VELUX Group and BayWa r.e. announced the conclusion of a PPA on the basis of which two large PV solar parks were to be built in southern Spain: one in Gerena, near Seville, and one in Alhendín, near Granada. The park in Alhendín has now been completed and has recently started feeding electricity into the local grid.

With the full commissioning of Alhendín, the VELUX Group has not only achieved its goal of supplying itself with 100 percent renewable electricity, but has also enabled the construction of further renewable energy plants in Europe. The solar park consists of more than 85,000 solar modules and produces 96.8 GWh of electricity per year. This corresponds to the electricity consumption of 24,700 European households.

Innovative agri-PV system

Part of Alhendín combines agriculture with renewable energy generation as an agri-PV plant and is BayWa r.e.’s first agri-PV project in Spain: Agricultural machinery can now drive between the rows of solar modules on around 10 percent of the area.

 “The completion of the Alhendín solar park and its connection to the Spanish electricity grid will enable VELUX to achieve its green energy supply targets,” says Kim Jonas, Energy & Climate Director of the VELUX Group. “The project, which focuses on agricultural use and biodiversity, fits perfectly with our ambition to drive climate action and improve biodiversity. Together with BayWa r.e., we are implementing the Solar Plant Symbiosis concept, which enables solar energy production in harmony with nature and the local population.”

Also see: Agrisolar: New digital map presents European projects

Daniel Gäfke, Global Director of Projects and Member of the Board of Management of BayWa r.e., adds: “We are delighted to be able to support VELUX in achieving the target of 100 percent renewable electricity for its European sites. This is also an important milestone for BayWa r.e. to accelerate the energy transition in companies in order to achieve global climate targets. Just like VELUX, our approach is to go beyond the usual standards. Therefore, in this project, we will implement pioneering Agri-PV concepts that enhance biodiversity, promote local stakeholder engagement, and maximize local value creation.”

Solar Plant Symbiosis

The Solar Plant Symbiosis concept includes a series of measures to promote biodiversity and the involvement of local stakeholders. It was developed by the Universidad de Córdoba and the Universidad Autónoma de Madrid and so far includes the following measures as part of the project:

– Baseline surveys, digitization and monitoring of vegetation

– Agri-PV system and rainwater collection system

– Grass planting with natural seeds and wildflower species

– Shelters for wildlife, ponds for amphibians, bird baths, nesting boxes and posts

– Breeding site to protect the endangered lesser kestrel species

– Improvement of the steppe habitat

– Monitoring and evaluation of the measures to create a guide that can be used to adopt best practice in other projects

– Social actions on the ground, such as workshops with local stakeholders and school visits

Next steps

The measures are to be gradually implemented at the Alhendín solar park by spring 2025. The second PV project of the collaboration, the Gerena solar park, is currently still awaiting official approval on site and is scheduled for completion in 2025. The park is expected to have an output of 60 MWp.

When both solar plants are fully operational, they will generate 167 GWh of renewable electricity for VELUX every year. This corresponds to the electricity consumption of around 45,000 European households. Around 80 percent of the electricity generated will go to VELUX via the PPA and will reduce the VELUX Group’s carbon footprint in Europe by around 40,000 tons of CO2 annually. 

More at Intersolar Europe

BayWa r.e. will be presenting its comprehensive product and service portfolio in the PV sector at the Intersolar Europe trade fair in Munich (Hall A4, Stand 180) from June 19-21. Among other things, visitors will be able to view an agri-PV system in the outdoor area, which will be installed by BayWa r.e. together with partners. (hcn)





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Hysencia thus becomes one of the few commercial renewable hydrogen production projects to have this permit in Spain and Europe.

This follows on from Hysencia being one of the winners in the first European renewable hydrogen auction last April, in which the European Commission selected only seven projects out of 132 submitted across Europe.

99 MWh solar electricity yearly to power the electrolyser

“Obtaining the Integrated Environmental Authorization represents an important milestone for the Hysencia project and DH2 Energy’s significant portfolio of projects under development. Hysencia is one of the most advanced commercial-scale renewable hydrogen production plants in Spain.

This project has a territorial vocation and will have a very positive impact in Aragon, during both the construction and operational phases for the generation of its green hydrogen as a clean energy vector” declared DH2 Energy’s Renewable Hydrogen Projects Development Director for Spain, Raquel Fernández Corzo.

DH2 Energy, headquartered in Madrid, will begin construction of the plant in early 2025. The facilities will occupy a 100-hectare site in Plasencia del Monte, in the municipality of La Sotonera, Aragon. The project uses its captive solar energy plant to produce 99 gigawatt hours of renewable electricity each year to power the electrolyser and also entails a 10 MW connection to the electricity grid.

1,700 tonnes of renewable hydrogen annually

Hysencia will produce 1,700 tonnes of renewable hydrogen each year and avoid the emission of around 16,000 tonnes of CO2 per year. The green hydrogen will be supplied to the mobility and industrial sectors.

Also see: Switzerland to build ten-megawatt hydrogen electrolysis plant

Hysencia’s location is effectively ideally suited for the supply of renewable hydrogen to the transport sector as it is close to different land communication axes including the Huesca-Canfranc railway line.

Region with extensive experience in the renewable hydrogen sector

The Aragon region has extensive experience in the renewable hydrogen sector, notably through its institutions and the Hydrogen Aragon Foundation, maintains a strong commitment to green hydrogen and supports its entire value chain.

The Aragon Hydrogen Foundation has also adopted a Hydrogen Master Plan, the first version of which dates from 2007. In addition, last year the region tested one of the first hydrogen pilot trains in Spain on the Huesca-Canfranc railway line. (hcn)





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