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EDP has just signed an international partnership to mount up to 100MW of solar ability at the around the world sites of automotive elements manufacturer Faurecia. By the end of 2023, greater than 60 self-consumption solar parks will be mounted at the international's industrial units in Portugal, Spain, Italy, the US, China, South Korea, Japan, as well as Thailand. This is the largest distributed solar energy project protected to this date by EDP and the very first to be mounted with the same companion in several continents all at once. The deal will certainly allow Faurecia to eat renewable resource produced at its own sites, considerably reducing its reliance on the power grid. The collaboration is also an essential step in Faurecia's objectives to gradually decrease the carbon emissions of its commercial operations (scope 1 as well as 2). The collaboration is based upon an as-a-service version, with EDP investing, operating and keeping panels under lasting contracts adjusted to the local uniqueness of each Faurecia market. It is anticipated that these more than 60 projects may have up to 200,000 solar panels, and that they will enable the firm to prevent greater than 60,000 tonnes of carbon dioxide over the following decade. In Europe and also Brazil, EDP has been reaching record worths for distributed solar acquired capacity as well as has currently mounted around 300MW on firms' sites and households residences via EDP Comercial. EDP has been growing in this section in numerous European markets, with natural development and also procurements, as happened just recently in Poland, through Soon Power, or in Italy, with the acquisition of Enertel In the United States and Asia Pacific, EDP recently went into the dispersed solar market via EDP Renewables, with the purchases of the North American business C2 Omega and also the Asian business Sunseap, specifically. Faurecia chief executive officer Patrick Koller claimed: "Producing renewable energy on our sites is a central commitment to meet our 2025 objective to become CO2 neutral for our in-house emissions. " Leveraging critical partnership with global and also leading companions allows us to speed up as well as boost our power resilience in a much more sustainable way. " Also, it shows our company responsibility to have a positive effect on society as well as fulfill the requirements of future generations."

local arm of Portuguese utility EDP - Energias de Portugal SA (ELI: EDP) claimed on Wednesday this investment belongs to its approach to play a leading

bargain also enables EDP to gain control of Blue Sol 3 as well as a half years after the conclusion of the deal, EDP claimed Monday. Blue Sol has

EDP has inaugurated a 5MW floating solar farm located on a storage tank around Alqueva in Portugal. The project makes up almost 12,000 panels as well as will provide 7.5 gigawatt-hours a year for greater than 30% of the population in the area in the south of the country. It covers virtually 4 hectares or regarding 0.016% of the overall area of the Alqueva tank and is incorporated with hydroelectric output from the Alqueva dam. Construction took seven months as well as the project represents a complete financial investment of EUR6m. Furthermore, the installment of a battery system is additionally planned, with a small power of 1MW as well as a storage capacity of around 2 megawatt-hours. EDP president Miguel Stilwell d'Andrade claimed: "Floating solar technology, in which EDP is an international leader, is an exceptional leap ahead in the development of renewables and also in accelerating the decarbonization procedure. " And our hybridisation approach, by integrating water, sun, wind and also storage, is clearly a rational path for growth in energy production in which EDP will remain to spend. " Alqueva is today an example of innovation and also sustainability that we will certainly soon enhance with the new project won in the first floating solar auction in Portugal."

EDP Energias de Portugal SA is divesting its entire stake in a 207-MWac/248-MWdc solar portfolio in Italy through its renewables arm, EDP Renovaveis SA. The portfolio, comprising five solar farms in central and southern Italy, is being sold to German operator Encavis AG for over EUR 250 million. Four of the farms have long-term PPAs, while one has a 20-year CfD.The transaction, pending regulatory approval, is expected to close later this year. The enterprise value may be adjusted at closing, considering capacity extension possibilities and synergies from hybridisation. EDP holds a 71.3% stake in EDPR. Why is EDP selling its 207-MWac solar portfolio in Italy to Encavis AG? Strategic Focus: EDP is focusing on reallocating resources to other strategic markets or projects that align more closely with its long-term goals. Capital Recycling: Selling the portfolio allows EDP to recycle capital, freeing up funds for investment in new projects or technologies. Market Conditions: The Italian solar market may have reached a maturity level where EDP sees more value in selling assets than in holding them. Financial Optimization: The sale could improve EDP's financial metrics, such as reducing debt or increasing liquidity. Partnership Opportunities: The transaction with Encavis AG could open doors for future collaborations or partnerships in other markets. Regulatory Environment: Changes or anticipated changes in the regulatory environment in Italy might have influenced the decision to sell. Portfolio Diversification: EDP may be looking to diversify its renewable energy portfolio by investing in different types of renewable energy or in different geographical regions. Risk Management: Selling the portfolio could be part of a risk management strategy to reduce exposure to specific market or operational risks in Italy.

utility company EDP Brasil has actually signed a contract to acquire AES Inova, a dispersed generation financial investment system of AES

EDP Renewables has purchased a portfolio of over 42 MWp of solar projects in the New Aquitaine region of southern France. The bundle includes four photovoltaic schemes, three of which will combine solar power production with agricultural activities. The projects will be installed on degraded land and are expected to be operational between 2025 and 2028. The financial details and the name of the vendor were not disclosed. EDP Renewables currently owns over 600 MW of installed power capacity in France and sees this acquisition as a strategic move to strengthen its position in the competitive French market.EDP Renewables has acquired a portfolio of over 42 MWp of solar projects in southern France. The bundle includes four photovoltaic schemes, three of which will combine solar power production with agricultural activities. The projects will be installed on degraded land and are expected to be operational between 2025 and 2028. The financial details and the name of the vendor were not disclosed. EDP Renewables sees this acquisition as a strategic move to strengthen its position in the competitive French market, where it currently owns over 600 MW of installed power capacity. What is the significance of EDP Renewables' acquisition of solar projects in southern France? The acquisition of solar projects in southern France by EDP Renewables is significant for several reasons: It allows EDP Renewables to expand its presence in the French renewable energy market, which is known for its competitiveness. The acquisition strengthens EDP Renewables' position as a key player in the solar energy sector in France, where it already owns over 600 MW of installed power capacity. The portfolio of solar projects includes four photovoltaic schemes, three of which will combine solar power production with agricultural activities. This integration of solar power and agriculture is a growing trend in the renewable energy industry, as it maximizes land use and promotes sustainable practices. The projects will be installed on degraded land, which means that they will contribute to the revitalization and rehabilitation of these areas. This aligns with EDP Renewables' commitment to environmental sustainability and responsible land use. The operational timeline of the projects, between 2025 and 2028, indicates a long-term investment by EDP Renewables in the French solar market. This demonstrates the company's confidence in the growth potential of solar energy in the region. The financial details and the name of the vendor were not disclosed, but the acquisition signifies EDP Renewables' commitment to expanding its renewable energy portfolio through strategic investments. Overall, the acquisition of solar projects in southern France by EDP Renewables is a significant move that not only strengthens the company's position in the French market but also contributes to the development of renewable energy and sustainable agriculture in the region.

utility EDP announced plans to establish a 5.1 MWp solar neighbourhood in Portugal, with over 9,000 photovoltaic panels installed on the roofs of the

EDP - Energias de Portugal SA has acquired 44.3 MWp of solar distributed generation parks in Brazil for BRL 218 million (approximately USD 37.5 million). The purchase, made from Brazilian solar company Grupo Tangipar, includes 16 solar assets located across the states of Bahia, Mato Grosso, Mato Grosso do Sul, and Paraná. Of these assets, five are operational, while the remaining eleven are under construction, expected to be completed by 2025.This acquisition advances EDP’s goal of reaching around 500 MWp of installed capacity by 2026, as it currently holds 258 MWp. The deal is pending approval from Brazil's antitrust regulator, CADE. How does EDP's acquisition of solar parks impact its 2026 capacity goals? EDP's recent acquisition of solar parks in Brazil is a strategic move that aligns with its broader capacity goals for 2026. Here are additional insights into how this acquisition impacts its plans: Increased Capacity Towards Target: With the acquisition of 44.3 MWp of additional solar capacity, EDP is incrementally moving closer to its target of 500 MWp by 2026, increasing its current capacity from 258 MWp to 302.3 MWp. Strengthening Portfolio Diversity: The diverse geographical distribution of the solar assets across Bahia, Mato Grosso, Mato Grosso do Sul, and Paraná allows EDP to leverage different regional solar markets, enhancing the resilience of its portfolio. Operational vs. Under Construction Assets: The inclusion of five operational assets immediately boosts capacity, while the eleven assets under construction are expected to contribute significantly to future capacity, enhancing EDP's growth potential in the coming years. Renewable Energy Commitment: Acquiring solar parks reinforces EDP's commitment to renewable energy, aligning with global trends towards sustainable energy practices and responding to increasing demand for clean energy solutions. Financial Implications: The acquisition cost of BRL 218 million (USD 37.5 million) underscores EDP's investment strategy in renewable assets, aiming for long-term capital growth through sustainable energy investments. Regulatory Approval Considerations: The pending approval from Brazil's antitrust regulator, CADE, emphasizes the need for compliance and strategic navigation of regulatory frameworks, which could affect the timing and availability of these new assets. Market Positioning and Competitiveness: Enhancing solar generation capacity enhances EDP's market positioning in Brazil, providing a competitive edge in a rapidly growing renewable energy sector, especially as countries push for decarbonization. Future Growth Trajectory: Meeting or exceeding the 500 MWp target could unlock further investment opportunities for EDP, as demonstrating a solid track record of capacity growth may attract additional funding and partnerships in future renewable projects. Contribution to Climate Goals: By expanding its solar capacity, EDP makes a significant contribution towards national and global climate targets, helping reduce greenhouse gas emissions through enhanced renewable energy production. Job Creation and Local Economy Impact: The construction and operation of solar parks can stimulate local economies and create job opportunities, which may further enhance EDP's reputation and community relations in Brazil. In summary, EDP's acquisition is a crucial step in its transition towards a more significant renewable energy footprint and aligns with its strategic capacity goals for 2026.

EDP has commissioned 90 MW of new solar capacity in Spain, bringing two projects online and moving them from construction into revenue-generating operations. The start-up adds fresh daytime generation in one of Europe’s most competitive photovoltaic markets and supports EDP’s broader Iberian renewables rollout.The new plants reflect the latest execution priorities in Spain, including high-efficiency—often bifacial—modules, optimized fixed-tilt or tracker designs, and plant controls aligned with Spanish grid-code requirements such as reactive power support and fault ride-through. EDP is also positioning the sites for potential future storage additions, while commissioning expands fleet-level monitoring and preventive O&M efficiencies. What does EDP’s 90 MW Spain solar commissioning mean for operations, technology, and storage? Operations (what changes immediately)- The move from construction to commercial operation means EDP can start selling electricity from these sites and shift the assets into day-to-day fleet management.- Handover to operations includes ramp-up procedures (stabilizing output, verifying protection settings, and confirming grid synchronization behavior).- New performance baselines are established for yield tracking, so dispatch forecasts and maintenance planning can be calibrated against actual solar irradiance and plant response.Technology (what’s being validated in real grid conditions)- Commissioning confirms module and inverter performance at scale, including inverter sizing, string management, and any bifacial gain assumptions (where applicable).- Plant layout performance is validated—fixed-tilt versus tracker behavior, row spacing effects, and real-world soiling and shading impacts versus modelled expectations.- Grid-interconnection features are proven through mandatory compliance tests, including reactive power capability, voltage/frequency response characteristics, and fault ride-through behavior.- Plant control systems (SCADA/EMS, monitoring alarms, and curtailment logic) are verified so operators can interpret grid events and manage setpoints accurately. Storage readiness (what the 90 MW enables)- By commissioning with future expansion in mind, the sites can potentially be retrofitted or expanded with battery storage using existing electrical and grid-connection infrastructure where feasible.- Storage addition would shift the operating profile from purely daytime generation to dispatchable output—smoothing ramps, reducing curtailment exposure, and improving value capture during peak price or grid constraint periods.- Even without storage installed on day one, the commissioning data improves future storage sizing decisions (e.g., typical solar production curves, export constraints, and curtailment frequency).Monitoring and O&M (how reliability improves)- Commercial commissioning expands EDP’s real-time monitoring footprint, enabling earlier detection of underperformance (inverter trips, string-level issues, tracker anomalies, or meteorological-driven deviations).- Preventive maintenance can be scheduled based on asset condition rather than only periodic inspections, reducing downtime and improving availability.- Commissioning measurement sets support better long-term performance modelling (degradation rates, availability, and loss-factor updates), which improves bankability and operational forecasting across the fleet.Grid and market impacts (why it matters operationally)- Adding 90 MW increases daytime generation contribution, which can tighten operational coordination with trading/forecasting teams due to higher production variability typical of PV.- Proven grid-support capabilities help reduce operational risk during disturbances, lowering the likelihood of prolonged outages or excessive curtailment compared with plants that are slower to respond to grid requirements.

utility EDP Energias de Portugal SA has secured EUR 500 million in loans from the European Investment Bank. This funding will be directed towards

EDP will develop a 28-MWp utility-scale solar park in Japan, adding another mid-sized photovoltaic project to its Asia-Pacific renewables portfolio. The move highlights how corporate demand and non-feed-in-tariff (non-FIT) structures are increasingly determining the economics of new solar capacity.Japan’s utility projects are typically designed to meet strict land, environmental and grid-code requirements, with engineering focused on resilience to heavy rain and typhoons. Solar sites of this size are often positioned for structured offtake arrangements, including physical delivery and certificate-based mechanisms, to provide traceable renewable supply for corporate buyers. Developers may also design projects to be “battery-ready” even if storage is not included initially. How Will EDP’s 28-MWp Japan Solar Project Reflect Corporate Non-FIT Economics? Non-FIT pricing shifts revenue risk onto project developers and offtakers, so EDP’s 28-MWp build will likely be structured to withstand lower or more volatile market prices than a FIT-supported model. Corporate/offtaker demand becomes central: EDP’s project economics will depend on securing long-term commercial supply agreements (or equivalent contract structures) that monetize electricity plus any associated green attributes. Offtake design matters more than tariff rates: instead of guaranteed FIT premiums, the project will need a workable combination of power purchase pricing, contract tenure, and credit terms that match corporate procurement budgets. Renewable energy certificates and traceability can improve bankability: non-FIT markets often value certificates separately, so EDP’s commercial framework may rely on certificate revenues or premiums to close financing gaps. Physical delivery and grid constraints affect cost and value: Japan utility solar must meet grid-code and connection requirements, so any curtailment risk or delivery limitations can directly influence realized economics. Site engineering for typhoons and extreme rainfall can raise upfront capex, but can also protect long-run cash flows by reducing downtime, asset damage, and maintenance costs—key for non-FIT projects where earnings are not tariff-stabilized. “Corporate non-FIT economics” typically rewards certainty: EDP’s commercial terms may therefore emphasize take-or-pay concepts, minimum offtake floors, or clear settlement rules to limit revenue erosion. Portfolio and currency strategy can influence competitiveness: in non-FIT settings, financing structure (interest rate hedging, currency hedging, and sponsor support) can be decisive for whether the project clears hurdle rates. Battery-ready provisions can be an economics lever: even without batteries at start, designing for future storage can improve dispatch flexibility later, potentially enabling better pricing under time-varying offtake or ancillary service frameworks. Merchant exposure is more costly under non-FIT: if any portion of generation is sold without long-term contracting, EDP’s returns will be more sensitive to spot prices and regulatory changes, shaping how much capacity must be under contract. Corporate buyers often require compliance and reporting: the project’s ability to deliver auditable renewable claims can command better commercial terms, making documentation and certification arrangements a core economic driver. Competition for offtake contracts may drive structure: as more non-FIT projects compete, EDP’s 28-MWp scale and reliability case (performance guarantees, O&M commitments, curtailment handling) can determine whether corporate demand translates into favorable pricing. Financing model alignment is crucial: non-FIT projects usually need lenders to underwrite contract durability, grid-availability assumptions, and revenue components (power, certificates, any flexibility products), so contract bankability becomes a primary determinant of project economics. Regulatory and market evolution will be reflected in contracting: EDP may incorporate adjustment mechanisms (where feasible) to account for changes in market rules, certificate treatment, or power market design that can otherwise pressure non-FIT returns.

development and also acquisitions, the unit of Portuguese power significant EDP claimed on Friday. In 2022, its portfolio was reinforced with the purchase of

EDP has brought some solar energy to Portugal, switching on a 1MW solar farm at the northern Production and Logistics Centre of national postal service CTT - Correios de Portugal. The solar array feature over 1,800 solar panels and is capable of meeting 40% of the building's daily energy needs. Additionally, after completion of a licensing process, the solar array will become a Collective Self-Consumption Community, sharing its benefits with up to 850 local families and companies. The partnership between EDP and CTT is aiming to develop up to 6 MWp of decentralised energy generation projects to benefit around 8,000 families and companies. How Can the EDP and CTT Partnership Benefit 8000 Families and Companies? The 1MW solar farm is capable of meeting 40% of the building's daily energy needs The solar array will become a Collective Self-Consumption Community, sharing its benefits with up to 850 local families and companies The partnership between EDP and CTT is aiming to develop up to 6 MWp of decentralised energy generation projects The decentralised energy generation projects will benefit around 8,000 families and companies This initiative will reduce the energy bills for the 8,000 families and companies, meaning significant cost savings The solar energy projects will help to reduce the energy dependency on costly fossil fuels It will also help to reduce emissions, improving the air quality and contributing to the fight against climate change

18.9 million/EUR 17.5 million) loan package to support four solar projects by EDP Renovaveis Brasil. These projects have a combined capacity of 181.1 MW,