The first wind turbine factory initiative is designed to support Egypt’s broader efforts to localise renewable energy technologies, increase clean energy generation capacity and strengthen domestic manufacturing capabilities. It forms part of the country’s strategy to boost local industry participation in renewable energy projects while increasing the domestic component used in such developments. The agreement also supports the localisation of advanced solar and wind energy technologies, expansion of electrical equipment manufacturing and implementation of renewable energy projects in Egyptian pounds.

In addition, the project is expected to benefit from Egypt’s trade agreements, enabling locally manufactured products to reach export markets throughout Africa and the Middle East.

Partnership Between SANY Renewable Energy, EETC and NREA

The MoU was signed between China’s SANY Renewable Energy, a global leader in wind turbine manufacturing technology, and Egypt’s Egyptian Electricity Transmission Company (EETC) and New and Renewable Energy Authority (NREA). Signatories included Li Qiang, Chairperson of SANY Renewable Energy, Mona Rizk, Chairperson of the EETC, and Ehab Ismail, Chief Executive Officer of the NREA.

Under the agreement, Egypt will establish its first wind turbine factory to manufacture equipment and components for local wind energy developments while exporting excess production to regional markets. The agreement further covers the development of a 2 GW wind power plant that will be implemented in local currency. The project supports Egypt’s National Energy Strategy, which aims to raise the share of renewable energy in the national energy mix to 45% within the next two years.

Government Highlights Renewable Energy and Energy Security Goals

Speaking on the sidelines of the signing ceremony, Madbouly emphasised the role of renewable energy projects in reinforcing Egypt’s electricity sector and broadening the country’s energy sources. He said that localising industries connected to renewable energy remains a central element of improving energy security and supporting Egypt’s green transition agenda.

Madbouly also pointed to the government’s continued efforts to strengthen cooperation among state institutions and expand partnerships with local and international private-sector investors. These partnerships are intended to accelerate renewable energy projects, including solar, wind and energy storage systems, using local currency. He further noted that Egypt is increasing its focus on energy storage solutions to maximise renewable energy output while maintaining the stability and reliability of the national electricity grid.

Project Timelines and Manufacturing Capacity

Esmat stated that localising electrical equipment manufacturing, particularly renewable energy components, aligns with the state’s objective of implementing solar and wind energy projects in Egyptian pounds. He added that the ministry is pursuing measures aimed at increasing local manufacturing content across the sector.

According to Esmat, the agreement includes the construction of the first wind turbine factory with an annual production capacity of 2 GW. The facility is expected to be completed within a maximum of two years after the signing of the final agreements. The wider project also includes a 2,000 MW wind farm, which is anticipated to be connected to Egypt’s national electricity grid within 23 months of project execution.

The minister further noted that Egypt’s growing market for solar and wind energy projects, combined with strong trade links across the Middle East and Africa, enhances the country’s position as a regional centre for renewable energy manufacturing and exports.

The memorandum establishes a comprehensive framework for collaboration, encompassing the exchange of technical knowledge, regulatory alignment, and human resource development. Both nations have agreed to explore research and innovation opportunities, particularly focusing on the potential deployment of advanced nuclear technology. The document was signed by the Ambassador of Croatia to Canada, Vice Skračić, and the Ambassador of Canada to Croatia, Jessica Blitt, with Croatian Minister of Economy Ante Šušnjar in attendance.

Regulatory Alignment and Knowledge Exchange

Canada is recognized globally as a leader in the field of civilian nuclear energy, maintaining decades of experience in the safe operation and development of nuclear facilities. Croatia, which co-owns the Krško nuclear power plant in Slovenia, is currently evaluating its future energy needs as part of a broader energy transition and decarbonization strategy. By partnering with international experts, Croatia aims to leverage top-tier experience to refine its own domestic energy policies.

The nuclear energy cooperation will prioritize the exchange of experiences regarding regulatory frameworks and safety standards. Key areas of focus include nuclear security, the management of nuclear fuel, and the safe handling of radioactive waste.

Advancements in Small Modular Reactors and Research

A primary component of the nuclear energy cooperation agreement involves the exploration of advanced nuclear technology, with a specific interest in small modular reactors (SMRs). These innovative reactor designs are seen as a potential solution for flexible and scalable power generation. Furthermore, the two countries will encourage joint efforts in research and development to foster innovation within the energy sector. Education and professional training also form a vital part of the memorandum, ensuring that the necessary workforce capacities are developed to support future energy infrastructure.

Ante Šušnjar noted that this partnership represents a strategic investment in the long-term resilience of the Republic of Croatia.

“Cooperation with Canada will further strengthen our institutions and professional capacities, and enable us to make decisions about future energy options based on facts, knowledge, and the best international experiences,” he stated.

Commitment to Energy Security and Future Planning

While the memorandum serves as a robust platform for expert exchange and institutional strengthening, the Croatia’s Ministry of Economy clarified that it does not constitute a binding obligation for specific investment decisions. Instead, it creates the necessary groundwork for future cooperation between the two countries in the field of civilian nuclear energy.

Speaking at the Lagos Chamber of Commerce and Industry Renewable Energy Outlook Conference 2026, Tegbe characterized the current state of the power sector as a paradox. He noted that while Nigeria remains Africa’s largest economy with an installed electricity generation capacity exceeding 13,000 megawatts, less than half of this output consistently reaches the end consumer. This discrepancy has forced manufacturers to rely on expensive alternative fuel sources, creating what the Minister described as a structural tax on the economy.

Legislative Framework and Grid Modernization

Working towards the 277GW electricity generation capacity goal, the ongoing Nigeria power sector reforms are anchored in the Electricity Act 2023, which effectively decentralized the sector by removing electricity from the Exclusive Legislative List. This shift empowers subnational governments to generate, transmit, and distribute power within their borders. To date, approximately 20 states have instituted their own electricity laws, with 12 states moving to take over regulatory functions from the federal commission.

To support this transition, the government has focused on strengthening the national grid infrastructure. Between 2024 and 2025, authorities installed 82 power transformers, adding 8,500MVA of transmission capacity. Furthermore, a $1.16 billion digitalization initiative is currently 69 percent complete. This project has seen the deployment of 3,000 kilometers of fiber optic cables and the upgrading of over 100 substations with advanced monitoring systems to stabilize the national grid infrastructure and reduce the frequency of disturbances.

The Nigeria Energy Transition and Economic Growth

The Nigeria energy transition is designed to address energy poverty while simultaneously meeting climate objectives. The Federal Executive Council’s approval of the National Integrated Electricity Policy in May 2025 serves as the updated framework replacing the outdated 2001 policy. This new direction seeks to utilize Nigeria’s vast natural resources, including 37 trillion cubic feet of natural gas and high solar irradiation levels, to drive sustainable development.

Dr. Abba Aliyu, Managing Director of the Rural Electrification Agency, emphasized that renewable enrgy should be viewed as a catalyst for industrial growth and economic development rather than just a solution for rural areas.

This CO2 battery storage project represents a continuation of the partnership established last year between the two companies, aimed at scaling sustainable power systems globally. The announcement follows a 19 MW/200 MWh battery project collaboration in Arizona.

Converting Surplus Generation into Dispatchable Power

As nations integrate higher levels of renewable energy resources into their networks, the necessity for long-duration energy storage has become a critical priority. While wind and solar assets often produce excess energy during peak conditions, this power can be lost without effective storage solutions. Ireland has targeted an 80% renewable electricity share by 2030, identifying large-scale storage as a vital component for maintaining a consistent supply.

The CO2 battery storage project is situated near Rhode, a strategic point on the national grid that serves the greater Dublin area. Although the region is rich in renewable energy resources, existing grid congestion often restricts the full output of local wind and solar farms. The CO2 Battery system is intended to alleviate these constraints by storing excess energy, thereby reducing the requirement for expensive infrastructure upgrades and supporting more resilient sustainable power systems.

“We are proud to work with Google on a project that strengthens grid reliability and unlocks the path to 24/7 carbon-free energy in Ireland,” stated Claudio Spadacini, Founder and CEO of Energy Dome.

Industrial Site Transformation and Technology Specifications

The facility will be constructed on the grounds of a decommissioned peat-fired power plant, repurposing land formerly used for fossil fuel production. Unlike traditional lithium-ion systems, this energy storage technology utilizes carbon dioxide and standard industrial components. Energy Dome maintains that this methodology enhances supply chain stability while providing the necessary capacity for utility-scale applications.

Project Timeline and Future Expansion

The development has already obtained necessary land rights, planning permissions, and a grid connection. Furthermore, it has secured a 10-year capacity contract from EirGrid, the state-owned transmission system operator. The facility is scheduled to begin commercial operations in 2028. Energy Dome has also indicated plans to install a second 200 MWh unit at the Rhode site, establishing a significant energy storage hub in the Irish Midlands.

“At Google, we are committed to catalyzing next-generation energy technologies to bolster grid resilience and introduce critical storage capacity to the system,” said Vanessa Hartley, Head of Google Ireland.

Strengthening Grid Stability and Renewable Energy Integration

The Utility-Scale battery energy storage project will facilitate the construction of a 250-megawatt/500-megawatt-hour battery storage system at the Takeo substation. This facility will capture excess renewable energy and dispatch it back to the grid to manage peak loads and stabilize fluctuations. Such infrastructure is essential to meet the increasing demand for electricity from industrial zones, urban districts, and agro-processing facilities in the southern regions of the country.

By improving grid interconnectivity with Vietnam, the battery storage project contributes to the ASEAN Power Grid’s objective of achieving fully integrated electricity operations by 2045.

ADB Country Director for Cambodia Yasmin Siddiqi said, “By strengthening the power grid with advanced battery storage, we are helping the country unlock more renewable energy while ensuring that families, farmers, and businesses benefit from safe, stable, and affordable electricity.”

Advancing a Sustainable Power System and Regional Goals

Currently, the nation’s power sector depends heavily on imported fuel, leaving it exposed to external price volatility and supply disruptions caused by geopolitical tensions. This battery storage project supports the national target of reaching 70% renewable energy capacity by 2030. Once operational, the facility is expected to prevent approximately 27,700 tons of greenhouse gas emissions every year, significantly aiding the renewable energy integration.

In addition to physical infrastructure, the battery storage project will bolster the capacity of Electricité du Cambodge (EDC), the state-owned utility, to manage advanced electrical systems. It also promotes technical skills development and seeks to increase female participation in leadership and technical roles within the sector.

The $63.44 million financing includes a $40 million concessional loan and a $5 million grant from the Asian Development Bank, complemented by $18.44 million in cofinancing from the Green Climate Fund and the United Kingdom through the ASEAN Catalytic Green Finance Facility.

Technical Integration and Project Framework

Under the terms of the agreement of the 25 GWh European battery storage deal, Tesla is set to provide its Megapack battery storage technology, along with engineering, procurement, and construction services. The collaboration also includes the use of the Autobidder platform for energy trading optimization. While Tesla provides the technological framework and services, the energy infrastructure projects will be owned and operated by NatPower.

The partnership is structured to move beyond simple equipment supply by integrating project development, financing, and construction into a unified framework. This strategy is intended to accelerate the deployment of large-scale battery energy storage. The initial phase of the program includes five projects across Italy and the UK, serving as the foundation for a broader pipeline that targets a total storage capacity of more than 100 GWh.

Economic Impact and Grid Requirements

NatPower estimates that the full development program could represent a construction value between $4 billion and $5 billion. Over a 20-year operational period, the initiative is projected to generate more than $15 billion in revenue. This European battery storage deal comes at a time of rising electricity demand, driven by widespread electrification and the rapid growth of artificial intelligence infrastructure and data centers.

Supporting Renewable Energy and Stability

Battery storage is emerging as a significant component of grid modernization. These assets are designed to assist with renewable energy integration by balancing intermittent power generation while providing essential grid stabilization and dispatchable power services. Europe is expected to require a substantial increase in storage capacity over the next decade to meet decarbonization targets and ensure the reliability of the power grid.

Tesla has established itself as a prominent provider of utility-scale battery solutions, while NatPower continues to expand its role as a developer of energy infrastructure projects in Europe. The storage assets involved in this agreement will focus on grid balancing, optimizing the output of renewable sources, and supporting industrial customers with high electricity requirements.

Executive Perspectives on Execution

Fabrizio Zago, CEO of NatPower, noted that the partnership signifies a transition from the development phase to large-scale execution.

Mike Snyder, Vice President of Tesla Energy, stated that the 25 GWh European battery storage deal utilizes integrated hardware, software, and construction capabilities to speed up the deployment of batteries across the European region.

The primary focus of this investment is to bolster grid reliability and support the large-scale renewable energy integration necessary for a successful transition to cleaner power sources. By enhancing the infrastructure, the project also aims to improve the efficiency of electricity exchanges with neighboring countries in the Western Balkans.

Technical Upgrades for Network Stability

The allocated financing will be utilized for the procurement and installation of four variable shunt reactors at strategically selected substations. These specialized devices are critical for the regulation of voltage levels within the transmission system. As the country incorporates more wind and solar power, these reactors will provide the necessary stability to manage more dynamic operating conditions, ensuring a sustainable power system for the long term.

By addressing technical challenges such as high voltage levels, the upgrades will expand the capacity of the energy infrastructure to accommodate new renewable energy projects. This power grid modernization effort is essential for maintaining a resilient network that can handle the fluctuations associated with renewable sources while reducing overall transmission losses.

Regional Integration and Economic Impact

Beyond domestic improvements, the power grid modernization will play a vital role in regional energy cooperation. Enhanced infrastructure allows for better management of cross-border power flows, fostering a more interconnected and efficient regional market. This alignment with international standards supports Bosnia and Herzegovina’s broader decarbonization goals and clean energy objectives.

Francesco Corbo, EBRD’s Regional Head of Energy for the Western Balkans and Croatia, stated that a robust transmission network is a fundamental requirement for the energy transition. He highlighted that the project would improve stron grid reliability and facilitate the deployment of renewable sources.

TransCo General Manager Dr. Miro Džakula further noted that these upgrades represent a vital step in strengthening the energy infrastructure to meet the rising demand for renewable energy integration and cross-border trade. This investment contributes to the overall efficiency of a sustainable power system, cut energy losses and will enhance operational stability.

“If our goal is to double our grid and build a low-carbon economy in less than 25 years, there is no credible plan to do that without nuclear energy and the clean, reliable baseload power is provides,” said Canada’s Energy Minister Tim Hodgson, at the unveiling of the new nuclear energy strategy.

The Role of Nuclear Power in the Artificial Intelligence Sector

Beyond traditional residential and industrial needs, nuclear power is being identified as a critical component for the advancement of artificial intelligence. Experts and government officials view reactors as a stable source of zero-emission power capable of meeting the immense energy requirements of large-scale data centers.

Technical Framework and Domestic Implementation

The cornerstone of this new Canada energy policy is the Canada Deuterium Uranium (CANDU) reactor. The federal government holds the licensing and intellectual property rights for this technology. These reactors are distinct because they utilize natural uranium fuel, which eliminates the need for uranium enrichment. This characteristic helps in lowering operational costs and reduces risks associated with nuclear weaponization. Currently, 17 of these reactors provide approximately 13 per cent of the nation’s electricity, with several others operating internationally.

The roadmap for Canada’s nuclear energy strategy includes specific milestones for domestic growth. The government intends to have two new large-scale reactors under construction by 2035, with an additional five in the planning or development stages by 2040. Furthermore, the strategy mandates the commercial rollout of at least one reactor outside of Ontario and the development of a domestically produced microreactor by 2035. These microreactors are slated for deployment in remote communities during the latter half of the 2030s.

Global Trade and Nuclear Reactor Exports

On the international stage, the government is looking to aggressively expand its footprint. The plan aims to secure at least four new international markets for reactor sales by 2040. Additionally, the government intends to engage with six to ten other nations that are looking to establish nuclear energy programs. This push for nuclear reactor exports is framed as a strategic move to position the country as a preferred partner for technology and raw materials, especially as nations in Europe and Asia seek alternatives to traditional suppliers.

The strategy also includes a goal to double the export of enriched uranium supplies over the next decade. The government views these international partnerships as more than just transactions, noting that they establish durable geopolitical and commercial relationships that serve broader foreign policy interests. This approach is expected to benefit the uranium mining industry in Saskatchewan, which already accounts for a significant portion of global output.

Financial Projections and Economic Considerations

Implementing such a vast infrastructure project involves significant financial commitments. Officials from Natural Resources Canada indicated that the construction of the proposed reactors could exceed $100 billion. The government has stated that these projects will be funded through a combination of private financing, capital investments, and Indigenous equity participation. While no new public funding was announced during the strategy’s launch, a new federal financing policy is expected by April 2027. This policy will detail the requirements for accessing loan streams and investments from the national infrastructure bank.

The strategy also emphasizes the need for project proponents to develop long-term solutions for nuclear waste management and disposal. To support innovation, the plan seeks to increase private research and development funding for fission and fusion technologies to between $500 million and $700 million by 2032, which would represent a doubling of current investment levels.

The discussions underscored the robustness of the special strategic partnership between the two nations. Both representatives highlighted the Barakah Nuclear Power Plant as a premier example of international nuclear energy cooperation. The nuclear energy plant has been instrumental in providing a stable energy security strategy while supporting the transition toward sustainable development goals in the region.

Expanding Horizons in Advanced Nuclear Technologies

Building upon the operational success of the Barakah project, the two parties explored new avenues for growth in nuclear energy. This includes a shared interest in advanced nuclear technologies and the development of modular small nuclear reactors. By focusing on these innovations, both countries aim to solidify their standing in the global nuclear energy sector while ensuring a resilient energy security strategy for the future.

The meeting also addressed broader infrastructure needs, including cooperation in oil and gas, refining, petrochemicals, and liquefied natural gas. These efforts are designed to create flexible energy systems capable of adapting to rapid global shifts.

Commitment to Renewable Energy Projects and Sustainability

Sharif Al-Ulama detailed the UAE’s ambitious roadmap for the energy sector, specifically the goal to increase the production capacity of renewable energy projects to 22 gigawatts by 2031. This strategy incorporates battery energy storage systems and a balanced energy mix that integrates conventional and clean sources to maintain long-term sustainability.

The Role of Artificial Intelligence Energy Solutions

A significant portion of the meeting was dedicated to the integration of artificial intelligence energy applications. The Ministry reviewed its current initiatives to enhance the sustainability of data centers through AI-supported smart cooling and energy efficiency standards. These digital tools are viewed as essential for planning future infrastructure and optimizing consumption.

Future Cooperation Under the Strategic Partnership Agreement

Furthermore, the UAE’s leadership in the Global Energy Efficiency Alliance (GEEA) was discussed. This state-led initiative seeks to facilitate knowledge exchange and policy development between governments and the private sector. The meeting concluded with a mutual agreement to maintain coordination under the strategic partnershipagreement so as to advance the prosperity of both countries.

According to a statement issued by Meralco, the parties will examine large-scale renewable energy and storage developments that could contribute to addressing the country’s growing power demand. The MOU outlines areas of potential cooperation covering power generation development, energy security, system adequacy and the deployment of emerging energy technologies. In addition, the agreement establishes a non-binding framework that will guide assessments and discussions aligned with the nation’s long-term power system development goals.

Proposed Capacity Could Require Extensive Renewable Energy Deployment

Meralco noted that the proposed baseload-equivalent capacity under the 5GW renewable energy project may require the deployment of approximately 25 GW of integrated renewable energy and energy storage systems. The company stated, “This collaboration aims to solidify renewable energy as a potential baseload equivalent solution to the growing energy demands of the country and prove its reliability and sustainability.”

The scope of the agreement also extends beyond power generation and storage. As part of the discussions, the parties will explore the possible development of electric vehicle (EV) charging infrastructure intended for residential, commercial and fleet users.

Industry Leaders Highlight Energy Security and Long-Term Cooperation

MGEN President and Chief Executive Officer Emmanuel Rubio emphasized the company’s commitment to initiatives that can contribute to a dependable and sustainable energy future.

“Through this MOU, we look forward to assessing how large-scale renewable energy, storage, and related infrastructure can contribute to the country’s evolving energy requirements,” he said.

VinEnergo General Director Nguyen Anh Khoa described the agreement as a reflection of the organizations’ common goal of advancing clean energy while strengthening long-term energy security.

“We also look forward to exploring broader opportunities for collaboration between Meralco, MGEN, VinEnergo and the Vingroup ecosystem to create lasting value for the communities we serve,” he said.

Meralco Executive Vice President and Chief Operating Officer Ronnie Aperocho also highlighted the importance of industry collaboration in pursuing energy security goals.

“Through this partnership with MGEN and VinEnergo, we will leverage on our respective capabilities and expertise to pursue opportunities that create transformative value, build a more resilient energy sector, help achieve the country’s long-term energy security goals, and contribute meaningfully to nation-building,” he said.