On April 28, just before noon, Claudia Blanco boarded a flight from Barcelona to Jerez de la Frontera, expecting a routine workweek from her countryside home. Instead, she landed in the middle of one of the most significant power outages to hit the Iberian Peninsula.

A Sudden Collapse of the Grid

By the time her plane touched down, something was clearly wrong. Phones were silent, communication had stalled, and confusion spread among passengers. Soon, the reality became clear: within seconds, large parts of the electricity systems across Spain and Portugal had failed, triggering a widespread blackout.

In some regions, both electricity and telecommunications remained unavailable until the following day. Everyday activities—from contacting family to paying for fuel—became impossible.

Off-Grid Resilience in Action

Unlike most, Blanco was prepared. At her rural property near Cádiz, she had installed a self-sufficient microgrid system, combining solar panels, battery storage, inverters, and a backup generator. The setup also included independent water access and food sources.

While millions experienced disruption, Blanco’s home continued operating normally. She was able to maintain electricity, prepare meals, and carry on with minimal interruption—only confirming the restoration of the broader grid once her internet connection returned early the next morning.

A Broader Warning for Energy Systems

Blanco does not frame her experience as a case for widespread off-grid living. Instead, she views it as a clear signal for policymakers and energy operators.

Modern power systems, she explains, were not originally designed to handle the growing share of renewable energy. Today’s grids must manage:

• Bidirectional and variable power flows
• Reduced system inertia
• Increased volatility from intermittent generation sources

These factors make networks more complex—and potentially more fragile.

Rising Pressure from Digital Demand

In addition to renewable integration, Blanco highlights the rapid growth of energy-intensive infrastructure. Large-scale data centers supporting artificial intelligence are significantly increasing electricity demand, with some facilities expected to scale from hundreds of megawatts to multiple gigawatts.

This combination—high renewable penetration and surging digital demand—places unprecedented stress on existing grid infrastructure.

The Need for Speed and Coordination

Despite the challenges, Blanco remains pragmatic and optimistic. The solutions, she argues, are largely understood. The real issue lies in execution speed.

Key priorities include:

• Faster regulatory processes
• Stronger collaboration across industry and government
• Increased investment in innovation and R&D
• More effective talent development and retention

She emphasizes the importance of building a new generation of technical experts through closer cooperation with educational institutions, while also creating work environments that retain skilled professionals.

Personal Motivation Behind the Microgrid

Blanco’s off-grid home was not built solely for resilience. After years of global travel and urban living, she sought a more balanced lifestyle—closer to nature and less dependent on centralized systems.

Her property, spanning a large rural area near her hometown, reflects that vision. The decision to install a microgrid was both practical and philosophical: a way to gain independence while applying the same principles she advocates professionally.

Strategic Takeaway

The Iberian blackout illustrates a critical inflection point for global energy systems. As electrification accelerates and grids become more complex, resilience must evolve alongside capacity.

Blanco’s experience underscores a central insight:
modern grids require not just expansion, but intelligent redesign—combining infrastructure upgrades, digital technologies, and systemic coordination to ensure reliability in an increasingly electrified world.

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GE Vernova has secured a contract from TransnetBW to modernize the Kühmoos substation—one of southern Germany’s key grid nodes supporting cross-border electricity exchange. The project is designed to enhance system reliability and strengthen power flows between Germany, France, and Switzerland.

Upgrading a Critical Energy Hub

Located near the Swiss border, the Kühmoos substation plays a central role in regional grid stability and serves as a connection point for major pumped-storage hydropower facilities. Its modernization is part of Germany’s broader effort to reinforce transmission infrastructure in response to rising electricity demand and increasing renewable integration.

Once upgraded, the facility is expected to improve frequency control, voltage stability, and cross-border energy exchange—key factors for maintaining a resilient interconnected European grid.

Project Scope and Technology

GE Vernova’s Grid Solutions division will deliver a turnkey upgrade, including the construction of a new 380 kV gas-insulated substation (GIS). This system will replace the existing air-insulated switchgear, effectively doubling transmission capacity while reducing the physical footprint.

The solution includes:

• 15 GIS bays designed for compact and efficient operation
• A four-main-busbar configuration to enhance flexibility and reliability
• Continuous operation of the substation during construction

Additionally, the project integrates a mechanical switched capacitor with damping network (MSCDN), a technology that helps regulate voltage and minimize transmission losses—especially important in high-load, renewable-heavy systems.

Strategic Importance for Europe

According to International Renewable Energy Agency projections, renewable sources could account for around 70% of Europe’s electricity generation by 2030 and nearly 90% by 2050. Achieving these targets requires not only new generation capacity but also significant upgrades to transmission infrastructure.

Initiatives like the Kühmoos modernization are critical for:

• Increasing grid flexibility
• Supporting large-scale renewable integration
• Enhancing cross-border coordination
• Improving overall system resilience

Insights from the World Economic Forum also highlight the urgency of strengthening grid infrastructure to meet rising demand and ensure stability across interconnected markets.

Industry Perspective

Executives from both companies emphasized the importance of the project in future-proofing the regional grid. For TransnetBW, the upgrade represents a major step toward securing reliable electricity supply in southwestern Germany and neighboring regions.

From GE Vernova’s perspective, the project underscores the company’s commitment to Europe’s energy transition and its role in delivering advanced grid technologies that support decarbonization and system reliability.

Strategic Takeaway

The Kühmoos upgrade reflects a broader structural shift in Europe’s energy system—from centralized generation to a highly interconnected, renewable-driven network. Strengthening key transmission hubs like this one is essential to ensure stable, efficient, and scalable power delivery across borders as the continent accelerates its transition to clean energy.

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GE Vernova has announced that the first of three combined-cycle blocks at Taiwan Power Company’s (TPC) Hsinta power plant is now operational, supplying up to 1.3 gigawatts (GW) of electricity to Taiwan’s grid. The facility is powered by GE Vernova’s advanced 7HA.03 gas turbine technology and represents a key milestone in the country’s transition away from coal.

Located in Kaohsiung, the Hsinta plant is being upgraded in phases to replace existing coal-fired units with high-efficiency natural gas generation. The new H-class units are expected to reduce emissions by approximately 60% compared to the legacy coal infrastructure they are displacing.

Chi-Hsiang Huang, Director of TPC’s Nan Bu Construction Organization, highlighted the strategic importance of the project:
“Our Hsinta Power Plant plays a central role in Taiwan’s energy transition, aligned with national policy objectives to reduce coal dependency and move away from nuclear power. Our long-standing partnership with GE Vernova has been instrumental in successfully commissioning the first unit, delivering up to 1.3 GW of lower-carbon electricity to our customers.”

Two additional blocks are scheduled to come online progressively through 2025 and 2026. Once fully completed, the plant will reach a total capacity of nearly 4 GW, providing reliable power to households and industrial consumers across Taiwan.

The first block was developed through a consortium between GE Vernova and local engineering firm CTCI Corporation. Each unit incorporates two 7HA.03 gas turbines paired with H65 hydrogen-cooled generators, two heat recovery steam generators (HRSGs), and one STF-D650 steam turbine with a hydrogen-cooled generator, forming a highly efficient combined-cycle configuration.

Ramesh Singaram, President and CEO for GE Vernova’s Gas Power business in Asia, commented:

“The deployment of our 7HA.03 technology marks a significant step in replacing aging coal assets with more efficient and flexible gas-fired generation. This supports Taiwan’s decarbonization pathway while maintaining grid reliability. Our HA-class combined-cycle solution was selected for its optimal balance of output, efficiency, operational flexibility, and maintainability.”

The plant’s modular, standardized design enables faster installation and simplified operation, contributing to improved project execution timelines. Its operational flexibility—particularly rapid startup and load adjustment—enhances grid stability and supports the integration of variable renewable energy sources.

Additionally, the 7HA.03 gas turbine is capable of operating on fuel blends containing up to 50% hydrogen by volume, offering a pathway for further emissions reduction as hydrogen infrastructure evolves.

GE Vernova has supported Taiwan’s energy development since 1961. By 2026, the company’s installed gas power capacity in the region is expected to exceed 10 GW—sufficient to generate electricity equivalent to the needs of more than 23 million homes.

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The rapid expansion of modern power systems in the 2020s mirrors, in many ways, the electrification boom of the 1920s. Back then, electricity networks relied heavily on coal-fired plants—polluting but dependable, capable of delivering continuous output to stabilize national grids. As hydropower emerged and energy began traveling longer distances, engineers introduced a novel solution: the Synchronous condenser. Unlike generators or motors, this machine spins without producing active power, serving a very different purpose.

Its role is to regulate Reactive power, sometimes referred to as “phantom power.” This invisible but essential component behaves unpredictably within electrical systems—building up, shifting, and potentially destabilizing the grid. If left unmanaged, it increases the risk of outages. A century ago, synchronous condensers helped maintain voltage stability across long transmission lines. Today, the same challenge has resurfaced—only at a much larger scale due to the rise of renewable energy.

As solar and wind generation expand, so does variability in power supply. This has renewed interest in synchronous condensers, which can both absorb and generate reactive power as needed. The result is improved grid stability and the ability to integrate more renewables without relying heavily on conventional power plants.

Nowhere is this shift more evident than in Saudi Arabia. As part of its Vision 2030, the country aims to generate 50% of its electricity from renewable sources by the end of the decade. This ambitious transition—particularly the large-scale deployment of solar energy—has highlighted the need for advanced grid stabilization technologies.

To address this, the Saudi Electric Company has begun implementing synchronous condensers supplied by GE Vernova. These systems are being deployed across multiple renewable energy sites to ensure stable and reliable electricity delivery.

Interestingly, this isn’t new territory for GE. The company developed its first synchronous condenser back in 1919, during a time when the U.S. was entering a major phase of hydroelectric expansion known as the Big Dam Era. Fast forward to today, and the context has shifted from large dams to massive solar installations. According to the Energy Information Administration, Saudi Arabia has over 21 gigawatts of renewable projects in development—most of them solar.

One of the key advantages of synchronous condensers is that they operate without burning fuel. Instead of running gas or coal turbines solely to maintain grid stability, these machines provide the necessary inertia and frequency control more efficiently. In effect, they reduce dependence on traditional generation assets while supporting cleaner energy integration.

The growing demand for this technology is driven by three converging trends: increasing renewable generation, rising electricity consumption, and the need for greater grid stability. Condensers help balance all three by maintaining consistent voltage and frequency—what engineers refer to as system “inertia.”

This approach is already being applied at projects like the Al Kahafah Solar Power Plant, one of the largest upcoming solar facilities in the region. As more renewable sites come online, synchronous condensers will follow, forming a critical backbone for grid reliability.

Despite its long history, this technology is experiencing a renaissance. Modern grids are becoming more complex, requiring both innovation and the revival of proven solutions. By combining legacy engineering with contemporary advancements, companies like GE Vernova are helping utilities manage the intricacies of large-scale electrification.

Ultimately, the power grid remains one of the most sophisticated systems ever built—demanding not only visible energy for consumers but also invisible forces like reactive power to keep everything running smoothly. The renewed role of synchronous condensers underscores a key reality: sometimes, the future of energy depends on rediscovering and refining the technologies of the past.

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Tourism continues to surge globally, placing increasing pressure on popular destinations—especially islands—to meet rising energy demand. From overcrowded cultural landmarks in Europe to expanding visitor numbers in the Caribbean, infrastructure is being tested at every level. In Puerto Rico, for example, air passenger traffic grew by 8% in 2024, while cruise arrivals increased by 10%, setting new records. This growth is now directly impacting the island’s energy system.

Puerto Rico is simultaneously recovering from major hurricanes in 2017 and 2022, which significantly weakened its grid infrastructure. At the same time, economic activity—particularly in tourism—continues to expand. Employment in leisure and hospitality rose by more than 5% last year, surpassing 100,000 workers. Energy consumption has rebounded as well, climbing from 238 trillion BTUs in 2020 to 280 trillion BTUs in 2023. Emissions have followed a similar trajectory, increasing from 16 to 19 million metric tons over the same period.

Facing the classic “energy trilemma”—balancing reliability, affordability, and sustainability—the Puerto Rico Electric Power Authority (PREPA) has recognized the need to modernize its generation fleet. According to John Ingham, strategic energy leader for GE Vernova’s aeroderivative segment, advanced gas turbine technologies can play a critical role in stabilizing the grid while enabling renewable expansion.

“I recently presented Puerto Rico as a case study, highlighting how its variable solar generation could benefit from aeroderivative turbines,” Ingham explains. “These systems are highly effective at maintaining grid stability. Frequency control is essential—without it, the entire grid becomes vulnerable.”

Building a Path Toward Renewables

Under Puerto Rico’s Energy Public Policy Act, the island aims to generate 40% of its electricity from renewable sources by 2025, 60% by 2040, and 100% by 2050. Progress is underway: renewable generation increased from 800 million kWh in 2020 to 1.1 billion kWh in 2023. However, renewables still account for just over 5% of total electricity production, underscoring the need for a stable transitional foundation.

San Juan, Puerto Rico / LM2500XPRESS turbines

To support this transition, GE Vernova has partnered with Puerto Rico’s RG Engineering to deploy six LM2500XPRESS aeroderivative gas turbines. These units are specifically designed for rapid deployment and operational flexibility—key advantages in regions with constrained infrastructure.

Their modular architecture allows for near plug-and-play installation. Each unit arrives largely pre-assembled, significantly reducing on-site complexity. “Instead of over a hundred electrical connections, these systems require only a few dozen pre-configured cables,” Ingham notes. “Everything is labeled and ready to connect, which accelerates commissioning.”

Initially, these turbines can serve as temporary power sources, helping to address immediate capacity shortages. Over time, they can transition into permanent assets, supporting long-term grid stability and renewable integration. This dual-purpose capability is particularly valuable for Puerto Rico, where urgent demand must be balanced with long-term decarbonization goals.

A Broader Shift Across Island Grids

Island regions worldwide are beginning to rethink their energy strategies. According to Midhat Mirabi, Managing Director of Aero New Units at GE Vernova, many are moving away from legacy diesel and heavy fuel oil systems.

“For decades, island grids relied on reciprocating engines that, while dependable, offered limited flexibility and higher emissions,” Mirabi explains. “Now we’re seeing a shift toward aeroderivative gas turbines, which provide faster response times, improved stability, and lower carbon intensity.”

This transition is evident not only in Puerto Rico but also in other regions such as the Bahamas and Haiti. These systems enable operators to modernize infrastructure while preparing for higher renewable penetration.

Aeroderivative turbines also share similarities with distributed energy solutions used in data centers—operating “behind the meter,” providing both primary and backup power, and offering rapid ramp-up capabilities.

From a technical standpoint, the LM2500XPRESS can reach full output in under five minutes. Its dry low emissions (DLE) combustion system minimizes nitrogen oxide (NOx) formation, while optional selective catalytic reduction (SCR) technology can further reduce emissions to extremely low levels—down to approximately 2.5 parts per million.

Enabling Renewable Integration

For smaller or isolated grids, integrating renewables presents unique challenges due to limited system inertia and lack of interconnection with larger networks. Flexible gas turbines provide the balancing capability required to manage intermittent sources like wind and solar.

While many island systems will continue to rely on imported liquefied natural gas (LNG), these technologies serve as a bridge toward cleaner energy systems. Larger economies, including Germany, have already demonstrated how aeroderivative turbines can support higher shares of renewable generation.

The relationship between gas and renewables is increasingly viewed as complementary rather than competitive. As former U.S. Energy Secretary Dan Brouillette noted, natural gas plays a vital role in maintaining grid reliability while enabling renewable expansion.

“I fully agree with that perspective,” Ingham concludes. “You need a stable backbone if you want to scale renewables effectively.”

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HELSINKI, Finland (July 1, 2025) – GE Vernova Hitachi Nuclear Energy (GVH) and Fortum have signed an early works agreement to support the potential deployment of the BWRX-300 small modular reactor (SMR) in Finland and Sweden.

Earlier this year, Fortum completed a comprehensive nuclear feasibility study and identified the BWRX-300 as one of the leading technologies under consideration for future projects in both countries.

“Following an extensive multi-year evaluation of SMR technologies, Fortum has recognized the BWRX-300 as a strong candidate for deployment in the Nordic region,” said Nicole Holmes, Chief Commercial Officer at GVH. “We have a long-standing track record in supporting nuclear development across the Nordics and look forward to collaborating with Fortum as it advances its new nuclear strategy.”

Under the agreement, the two companies will carry out early-stage engineering and pre-licensing activities, including site adaptation studies tailored to Finland and Sweden. Potential deployment timelines are targeted for the latter half of the 2030s.

The BWRX-300, a 300 MW Generation III+ reactor, builds on decades of operational experience with boiling water reactor technology. Its design emphasizes simplified construction, cost efficiency, and scalability, supported by GVH’s expertise in navigating multi-jurisdictional regulatory frameworks.

Global momentum behind the BWRX-300 continues to accelerate. In Canada, the Province of Ontario and Ontario Power Generation (OPG) have approved construction of the first unit at the Darlington site near Toronto, with four reactors planned in total and the first expected to be completed by the end of the decade.

In the United States, the Tennessee Valley Authority (TVA) has submitted an application to the U.S. Nuclear Regulatory Commission to build the country’s first BWRX-300 at the Clinch River site in Oak Ridge, Tennessee. These developments reinforce GVH’s leadership in advancing SMR commercialization globally, providing Fortum with access to an increasingly mature and validated technology platform.

About Fortum

Fortum is a Nordic energy provider focused on delivering reliable, low-carbon electricity while supporting industrial decarbonization. Its operations span power generation, customer solutions, and heating and cooling services. Approximately 99% of Fortum’s electricity production comes from renewable and nuclear sources, placing it among Europe’s lowest CO₂ emitters in the sector. The company is committed to achieving carbon neutrality by 2040 and employs around 4,500 people.

About GE Vernova Hitachi Nuclear Energy

GE Vernova’s nuclear division, in collaboration with Hitachi, is a global leader in nuclear fuel, services, and advanced reactor technologies. Its portfolio includes boiling water reactors and SMRs such as the BWRX-300. The fuel business, Global Nuclear Fuel (GNF), operates as a joint venture with Hitachi and provides fuel solutions and engineering services worldwide.

Forward-Looking Statements

This document includes forward-looking statements related to anticipated developments, performance expectations, and future projects. These statements involve inherent uncertainties and risks, often indicated by terms such as “expect,” “plan,” “anticipate,” or “estimate.” Actual outcomes may differ due to various factors, including market conditions, regulatory developments, and project execution dynamics.

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GE Vernova has secured an order to supply six LM2500XPRESS aeroderivative gas turbine packages to Puerto Rico, a move aimed at enhancing grid reliability and increasing generation capacity across the island. The project is part of a broader effort to modernize Puerto Rico’s power infrastructure and improve energy resilience.

The turbines have been ordered by RG Engineering (RGE), a Puerto Rican engineering, procurement, and construction firm, and will support the upgrade of power plants operated by the Puerto Rico Electric Power Authority (PREPA) at Daguao, Jobos, and Yabucoa. These facilities are currently managed by private operator Genera PR.

Once deployed, the six units are expected to deliver approximately 244 megawatts (MW) of power, helping to stabilize the grid, meet peak summer demand, and provide emergency backup capacity when needed.

Puerto Rico’s electricity system continues to face challenges following the damage caused by Hurricanes Maria (2017) and Fiona (2022), which significantly weakened grid infrastructure. The introduction of fast, flexible generation is seen as a critical step toward building a more resilient and responsive energy system.

At the same time, natural gas-fired technologies are expected to play a supporting role in the island’s transition toward renewable energy. Under the Puerto Rico Energy Public Policy Act of 2019, the territory aims to source 60% of its electricity from renewables by 2040 and reach 100% by 2050. Flexible gas turbines can help balance intermittent sources such as solar and wind, ensuring stable grid operation.

“These facilities are being upgraded with more efficient generation units as part of a broader modernization initiative,” said Winnie Irizarry, President and CEO of Genera PR. “The goal is to enhance capacity and reliability, improve performance during peak demand, and ultimately raise the quality of life for Puerto Rico’s residents. GE Vernova’s aeroderivative solutions allow us to respond quickly to grid demands and support overall system stability.”

Each LM2500XPRESS package includes a modular LM2500 aeroderivative gas turbine and an integrated emissions control system. Derived from aviation technology, these units are capable of starting from cold conditions in five minutes or less and can handle frequent start-stop cycles without increasing maintenance requirements. This operational flexibility makes them well-suited for integrating renewable energy into the grid.

“GE Vernova is proud to support Puerto Rico in strengthening its energy infrastructure,” said Dave Ross, CEO of GE Vernova’s Gas Power business in the Americas. “Our aeroderivative gas turbines offer the responsiveness and efficiency needed to improve grid reliability while enabling further renewable integration. We look forward to supporting Genera PR and PREPA in enhancing energy security across the island.”

LM2500XPRESS Technology Overview

The LM2500XPRESS is designed for rapid deployment, with approximately 95% of each unit pre-assembled at the factory into modular components. This “plug-and-play” configuration significantly reduces installation time and complexity, making it ideal for situations where power is needed urgently.

The system can reach full output within five minutes from a cold start, providing immediate support to the grid. It is available in both simple-cycle and combined-cycle configurations and supports both 50 Hz and 60 Hz operations. In simple-cycle mode, the unit delivers up to 34 MW with efficiency levels of up to 39.5%. In combined-cycle configuration, output can reach approximately 47 MW with efficiency as high as 54.4%.

For this project, the units will be assembled at GE Vernova’s Gas Power Manufacturing Excellence Center in Veresegyház, Hungary.

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BROSSARD, Canada (June 26, 2025) – GE Vernova Inc. (NYSE: GEV) has been awarded a contract by Rio Tinto, one of Canada’s largest private hydroelectricity producers, to modernize eight turbine-generator units at the Isle Maligne hydropower station located in Quebec’s Saguenay–Lac-Saint-Jean region.

The facility, which operates a total of twelve Francis turbine units, has been supplying hydroelectric power for nearly a century. The upcoming modernization initiative is designed to improve operational performance, extend equipment lifespan, and strengthen the long-term reliability of the plant for decades ahead.

Electricity generated by the upgraded facility will continue supporting Rio Tinto’s five low-carbon aluminum smelters operating throughout the Saguenay–Lac-Saint-Jean region.

The new agreement expands on earlier work completed by GE Vernova at the site. In a previous phase, the company modernized one generator unit at Isle Maligne. Following the success of that project, Rio Tinto and GE Vernova decided to pursue a broader long-term modernization strategy covering the remaining turbine-alternator systems.

The expanded scope is expected to improve planning visibility, optimize project execution schedules, strengthen supply chain coordination, and lower long-term ownership costs. Modernization of the first unit is scheduled to begin in 2026, with the final upgraded unit expected to be completed by 2032.

The project reflects the long-standing relationship between Rio Tinto and GE Vernova, which has included collaboration on several hydroelectric facilities across Quebec, including the Shipshaw hydropower complex.

“The Isle-Maligne hydropower station has been a strategic asset for Rio Tinto for nearly 100 years,” said Sébastien Ross, Managing Director for Atlantic Operations at Rio Tinto Aluminium. “This investment will help secure the long-term competitiveness and sustainability of our low-carbon aluminum operations in Quebec for both Canadian and U.S. customers.”

Frederic Ribieras, CEO of GE Vernova’s Hydro Power business, noted that the project demonstrates how aging hydro infrastructure can achieve major efficiency and performance gains without requiring complete reconstruction of core facilities. He also emphasized the importance of long-term partnerships in managing supply chain challenges within the growing global hydropower sector.

Hydropower remains central to Canada’s low-carbon electricity system, supplying roughly 60% of the country’s power generation. However, many facilities across the country are aging, with the average Canadian hydropower plant now more than 50 years old. With electricity demand in Canada expected to double by 2050, modernization of existing hydro assets is expected to play a critical role in ensuring future access to reliable and clean energy.

GE Vernova currently employs more than 2,000 people across Canada and supports customers nationwide with technologies related to power generation, transmission, storage, conversion, and grid orchestration.

About GE Vernova

GE Vernova Inc. (NYSE: GEV) is a global energy company focused on power, electrification, and wind technologies, supported by accelerator businesses that help advance energy innovation. With more than 130 years of industrial experience, the company is working to support electrification and decarbonization efforts worldwide. Headquartered in Cambridge, Massachusetts, GE Vernova operates in approximately 100 countries and employs around 85,000 people globally.

About GE Vernova Hydro Power

GE Vernova’s Hydro Power division develops advanced hydropower technologies that help provide reliable electricity for major economies as well as remote and isolated communities around the world.

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Global electricity demand experienced a sharp uptick in 2023, driven by industrial expansion, data center growth, and electric vehicle adoption, surging by 4.3%—more than double the decade-long annual average, according to the International Energy Agency. As nations prioritize electrifying energy consumption to leverage cost efficiencies and emission controls, initiatives like electric transportation, building heat pumps, and experimental electric steelmaking are accelerating worldwide.

Scott Strazik, CEO of GE Vernova, describes this period as “an unprecedented era of electric growth,” necessitating a diversified energy strategy to meet rising demand, with wind power playing a pivotal role. Central to this effort is the lean methodology—a relentless focus on refining manufacturing processes through safety, quality, delivery, and cost (SQDC) priorities, with safety as the non-negotiable foundation.

GE Vernova is embedding lean principles across global manufacturing hubs, particularly those producing Wind business components. Teams pursue rigorous lean certification for production lines, demonstrating mastery of process optimization. True to lean philosophy, certification marks not an endpoint but a catalyst for perpetual enhancement, with annual upgrades required to maintain standards.

In 2024, 25 wind manufacturing lines achieved lean certification, spanning facilities in Salzbergen, Germany; Pensacola, Florida; and Baodi, China. These sites exemplify continuous improvement, whether crafting minor bushings or massive turbine heads, with lean practices embedded in every workflow.

However, certification demands sustained effort. “Certification mandates annual upgrades, ensuring ongoing evolution—a challenging but essential process,” notes Stephan Hoevenaars, GE Vernova’s global lean leader for Wind manufacturing. Ten additional lines globally aim for certification this year.

Everything in Its Place

Marco Kreimer, production head at GE Vernova’s Salzbergen plant, emphasizes lean’s decades-long integration into operations. “Our standardization protocols govern every element—materials, equipment, crane positions, tools, and even waste bins,” he states. This meticulous organization eliminates ambiguity, ensuring consistency.

The Wind plant in Salzbergen, Germany, which uses a specially developed app to stop guesswork, help facilitate lean, and set the foundation for achieving SQDC. Top: The Pensacola, Florida, manufacturing plant that will be helping produce the 674 wind turbines for the massive SunZia project in New Mexico. “One day we started building new units, and then the next week we were building three units, then the next day we’re building five units,” says Cher Maze, Pensacola HR leader. Images credit: GE Vernova

Eliminating guesswork is achieved through a digital manufacturing execution system, where a custom app guides workflows aligned with SQDC goals. Employees log into workstations displaying real-time production schedules, confirming task completion to ensure adherence to specifications and quality benchmarks.

“When standardized processes are clear, deviations become immediately visible, enabling real-time corrections by operators and supervisors alike,” Kreimer explains. This transparency enhances planning precision and drives continuous improvement, allowing workers to focus on core tasks while leaders intervene proactively when needed.

The company’s philosophy holds that prioritizing safety and quality naturally elevates productivity, reduces costs, and ensures timely delivery. Salzbergen’s scalable turbine designs, optimized for repeatable manufacturing and sustainable supply chains, exemplify this. “Improving safety and quality inherently strengthens delivery and cost efficiency,” Kreimer asserts.

A Workhorse Emerges

GE Vernova’s Pensacola plant faced rapid scaling demands for New Mexico’s SunZia project—the Western Hemisphere’s largest wind farm. Producing 674 turbines, the facility swiftly ramped up output: “From one unit to five within days,” recalls HR leader Cher Maze. The plant has since delivered components for 1.2 gigawatts of the 2.4-gigawatt project.

The 3.6-MW-154m turbine powering SunZia exemplifies lean-driven innovation. Brandy McGraw, plant leader, credits lean “kaizen” events—collaborative improvement sessions—for certification success. One initiative, proposed by a line technician, streamlined panel wiring through supplier-partnered quick-connect solutions, enhancing safety and efficiency.

“Our best ideas often originate from frontline teams,” McGraw says. Yet lean’s core tenet remains perpetual progress: Certification success immediately prompts the question, “How will you sustain and improve it?”

No Task Is Too Small

At GE Vernova’s Baodi plant near Beijing, bushing production—a critical turbine component linking blades to hubs—has been restructured using lean principles. Robotic integration reduced manual handling from 12 steps to two, while laser-guided precision and ergonomic machinery minimized risks, as demonstrated by lean leader Qin Lu.

This shop-floor innovation epitomizes lean’s focus: Elevating minor components’ quality while safeguarding worker well-being. Over two decades, GE Vernova has installed 57,000 turbines across 50+ countries. With global electricity demand soaring, its lean-driven Wind division ensures scalable, sustainable solutions for a rapidly electrifying world.

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TORONTO (June 23, 2025) – GE Vernova Hitachi Nuclear Energy (GVH) has unveiled plans to develop an advanced BWRX-300 engineering and service centre in Canada, to be located in the Durham region near Ontario Power Generation’s Darlington New Nuclear Project.

The company intends to invest up to $50 million USD in the facility, contingent on further progress and the potential construction of three additional reactor units at the Darlington site.

The proposed centre will deliver engineering and technical support for the long-term operation and maintenance of a future fleet of BWRX-300 small modular reactors (SMRs) in Ontario. Beyond operational support, it is also designed to function as a focal point for innovation, workforce training, supply chain collaboration, and knowledge exchange. The site is expected to attract up to 2,000 nuclear professionals, partners, and suppliers annually, contributing meaningful economic value to the Durham region.

The announcement was made during an event attended by Ontario’s Minister of Energy and Mines, Stephen Lecce.

Heather Chalmers, President and CEO of GE Vernova Canada, emphasized that the new centre will strengthen Ontario’s leadership in nuclear energy while fostering a highly skilled workforce through advanced training infrastructure. She noted that the hub will connect local expertise with global SMR deployment efforts, ensuring access to cutting-edge innovation and talent.

Minister Lecce highlighted Ontario’s ambition to lead in next-generation nuclear development, pointing to job creation, workforce training, and long-term clean energy supply as key outcomes. He added that the investment reinforces the province’s strategy to build a competitive, domestically driven clean energy sector capable of exporting technology globally.

The announcement follows the Ontario government’s approval to proceed with construction of the first of four BWRX-300 reactors at the Darlington site—making it the first grid-scale SMR project approved within the G7. The initial unit is expected to be completed before the end of the decade.

The planned engineering and service centre will feature advanced capabilities, including a virtual reality simulator for operator training, as well as specialized systems to support safe refueling and maintenance operations. It will also focus on developing inspection and maintenance technologies tailored to SMR designs and act as a coordination hub for outage planning and execution.

The facility is targeted to become operational by late 2027, aligning with the deployment timeline of BWRX-300 units. In addition to supporting nuclear operations, the centre is expected to provide services across other GE Vernova business segments, further enhancing its economic impact. It will complement GVH’s existing operations in Wilmington, North Carolina.

About GE Vernova Hitachi Nuclear Energy

GE Vernova’s nuclear division, through its alliance with Hitachi, is a global leader in nuclear fuel solutions, services, and advanced reactor technologies. Its portfolio includes boiling water reactors and SMRs such as the BWRX-300, designed for simplicity, efficiency, and cost-effectiveness. Its fuel business, Global Nuclear Fuel (GNF), operates internationally, with major facilities in the United States and Japan.

Forward-Looking Statements

This release includes forward-looking statements related to future events and expectations, including business performance, project outcomes, and market conditions. Such statements inherently involve uncertainties and risks, including factors related to investments, project execution, and broader economic conditions that may impact actual results.

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TOKYO, Japan – CAMBRIDGE, Massachusetts (June 23, 2025) – IHI Corporation and GE Vernova Inc. announced the completion of a new Large-scale Combustion Test (LCT) facility at IHI’s Aioi Works site in Hyogo Prefecture, Japan, marking another step forward in the development of ammonia-fueled gas turbine technology.

The project is part of the companies’ Joint Development Agreement signed in 2024, which focuses on creating a next-generation combustion system capable of enabling GE Vernova’s F-Class gas turbines to operate on up to 100% ammonia by 2030.

The newly completed testing complex is designed to simulate real operating conditions for GE Vernova F-Class turbines, including pressure, airflow, fuel delivery, and temperature parameters. Beginning in the summer of 2025, IHI plans to launch a series of full-scale ammonia combustion tests using prototype combustors developed for the program.

The initiative is expected to contribute to the global energy transition by supporting fuels that can significantly reduce or eliminate carbon dioxide emissions during combustion. Because ammonia contains no carbon, it can serve as a carbon-free fuel option for future thermal power generation systems.

“This achievement represents an important milestone in the technology roadmap established between IHI and GE Vernova,” said Kensuke Yamamoto, Executive Officer and Vice President of Business Development at IHI. “Our objective is to develop a combustion system capable of operating entirely on ammonia by the end of the decade.”

Yamamoto noted that IHI has already developed the IM270 gas turbine, a 2-megawatt unit capable of operating on 100% ammonia fuel. Experience gained from that project is expected to support the development of larger-scale combustion technologies at the new testing facility.

According to IHI, the LCT facility will become a central hub for ammonia combustion development activities carried out jointly with GE Vernova. The program combines IHI’s expertise in ammonia combustion with GE Vernova’s global engineering and combustion research capabilities, including experience from the company’s advanced combustion testing center in Greenville, South Carolina.

Jeffrey Goldmeer, Senior Director of Technology Strategy at GE Vernova, said the announcement signals a transition from conceptual ammonia value-chain studies toward practical engineering and commercial deployment efforts.

“This collaboration moves the industry closer to real-world decarbonization solutions for thermal power generation,” Goldmeer explained. “The goal is to create pathways that reduce carbon emissions while protecting and extending the value of existing power generation infrastructure.”

Ammonia is already widely used in industries such as fertilizer production and chemical manufacturing. It is also increasingly viewed as an efficient carrier for hydrogen because it can simplify transportation and storage compared to pure hydrogen systems.

In the power sector, ammonia is attracting attention as a potential carbon-free fuel alternative since it produces no direct carbon dioxide emissions during combustion. Developers believe this could help accelerate efforts to reduce emissions from large-scale electricity generation.

About IHI

IHI traces its origins to Japan’s first modern shipyard established in 1853 and has since expanded into multiple industrial sectors, including energy systems, industrial machinery, aerospace, infrastructure, and defense technologies. The company is actively developing ammonia combustion technologies and working on carbon-free ammonia supply chains to support industrial decarbonization and cleaner power generation.

About GE Vernova

GE Vernova Inc. (NYSE: GEV) is a global energy company operating across power, electrification, and wind sectors, supported by accelerator businesses focused on advanced energy technologies. With more than 130 years of industrial experience, the company aims to help drive electrification and decarbonization worldwide. Headquartered in Cambridge, Massachusetts, GE Vernova employs approximately 85,000 people across around 100 countries.

GE Vernova’s Gas Power division develops advanced natural gas technologies, power generation systems, and decarbonization solutions designed to support lower-carbon electricity production. The business is recognized as one of the world’s largest suppliers of gas turbine technology and power plant services.

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• 12 wind turbines will be supplied by GE Vernova to Çalık Renewables for its maiden venture in Kosovo’s renewable energy sector
• Project will utilize GE Vernova’s 6.1 MW-158m turbines, a flagship model in their onshore wind portfolio
• Agreement strengthens GE Vernova’s market position in Kosovo, expanding its operational turbine count to 48 units nationwide

SALZBERGEN, Germany (June 18, 2025) – GE Vernova has formalized a contract to supply, install, and maintain 12 units of its 6.1 MW-158m onshore wind turbines for Çalık Renewables’ Zatriq I & II Wind Farms. This agreement, secured during Q1 2025, aligns with Kosovo’s renewable energy expansion targets for 2030.

Turbine deliveries will commence in late 2025 and continue into early 2026, with commercial operations anticipated by Q3 2026. The completed facility will generate sufficient electricity to meet the annual demand of approximately 32,000 average European households.

Gilan Sabatier, Chief Commercial Officer for GE Vernova’s International Onshore Wind Division, stated, “We’re excited to collaborate with Çalık Renewables and Çalık Enerji to enhance Kosovo’s wind energy capacity. Our Gas Power division has maintained a successful partnership with them for years, and this transaction demonstrates our ability to offer comprehensive energy solutions that support both electrification and carbon reduction objectives.”

“This venture represents our initial renewable energy investment outside Türkiye, marking a strategic milestone in Europe,” said Emre Erdogan, General Manager of Çalık Renewables. “Our commitment to sustainable development is underscored by this investment, which positions us as emerging contributors to Europe’s clean energy transition. We value our ongoing partnership with GE Vernova as we expand our renewable energy portfolio.”

GE Vernova’s Onshore Wind division maintains a global footprint with approximately 57,000 installed turbines generating 120 GW of capacity. With two decades of industry leadership, the company offers advanced high-capacity turbines that enable cost-effective, sustainable energy production through proven decarbonization technologies.

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GE Vernova, in partnership with Larsen & Toubro, has been selected to deliver a next-generation National System Control Center (NSCC) for Kenya Electricity Transmission Company, aimed at strengthening the monitoring and management of Kenya’s national power grid.

The project includes the construction of two state-of-the-art facilities: a primary control center in Embakasi and a backup emergency center in Suswa. Both sites will be equipped with advanced grid software, substation automation systems, and modern communication infrastructure to support efficient and reliable electricity transmission across the country. The contract was secured in early 2025.

Supporting Kenya’s Energy Ambitions

Kenya is pursuing an ambitious energy strategy focused on universal electricity access by 2030, alongside a transition toward cleaner and more efficient power systems. Achieving these targets requires significant investment in grid expansion, generation capacity, and digital infrastructure, including smart grid technologies that optimize transmission and consumption.

The new NSCC will play a central role in enabling these goals by improving grid visibility, operational control, and integration of renewable energy sources.

Scope and Technology Deployment

Under the agreement, GE Vernova will lead the consortium through its Grid Solutions division, delivering advanced technologies from its Electrification Software and Grid Automation portfolios. Key components include solutions from the GridOS® platform—such as Advanced Energy Management Systems (AEMS) and Wide Area Management Systems (WAMS)—alongside Enterprise Asset Management (EAM) tools and GridBeats™ applications for asset performance, condition monitoring, and substation automation.

Meanwhile, Larsen & Toubro will be responsible for all civil engineering works, including the construction of both greenfield control centers, installation of equipment, and support for system integration, testing, and commissioning. The full project timeline is estimated at approximately three years.

Enhancing Grid Reliability and Performance

According to leadership at KETRACO, the new system will significantly improve the country’s ability to manage rising electricity demand, maintain grid stability, and enhance power quality. It is also expected to accelerate the integration of renewable energy into the national network, a key requirement for Kenya’s long-term sustainability objectives.

From GE Vernova’s perspective, the project demonstrates its capability to deliver complex, end-to-end grid modernization programs that combine advanced software, automation hardware, and integrated financing solutions.

International Financing and Collaboration

The initiative is supported through a financing partnership with the French Development Agency and the French Treasury, reflecting strong international cooperation in advancing Kenya’s energy infrastructure. Additional backing includes support from the European Union focused on capacity building.

This financial structure underscores the importance of combining technical innovation with accessible funding mechanisms to enable large-scale infrastructure development in emerging markets.

The Role of a National System Control Center

An NSCC functions as the operational core of a country’s electricity network. It enables real-time monitoring, control, and optimization of power flows across the grid. By providing system operators with immediate visibility and actionable data, it helps prevent outages, stabilize voltage and frequency, and ensure efficient integration of renewable energy sources such as solar, wind, and geothermal power.

About GE Vernova

GE Vernova is a global energy company focused on advancing electrification and decarbonization. With operations spanning more than 100 countries, the company combines expertise in power generation, renewable energy, and grid technologies to support the global energy transition. Its Grid Solutions and Electrification Software businesses play a central role in enabling modern, resilient, and sustainable electricity networks worldwide.

Forward-looking statements: This summary includes projections and expectations regarding future developments, which are inherently subject to risks and uncertainties, including market conditions, regulatory approvals, and project execution factors.

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GE Vernova has released two new whitepapers outlining a practical framework for applying artificial intelligence to modern power systems. The publications explore how AI can enhance grid intelligence across operations, planning, and energy market applications, forming part of a broader research series focused on digital transformation in the energy sector.

Addressing Growing Grid Complexity

Utilities today are operating in an increasingly complex environment. The rapid expansion of renewable and distributed energy sources—such as rooftop solar and battery storage—has made it more challenging to maintain grid stability. At the same time, rising electricity demand driven by data centers and widespread electrification is creating highly variable and concentrated load patterns.

Additional pressures, including extreme weather events and escalating cybersecurity risks, are further straining grid resilience. Traditional management approaches are no longer sufficient to handle these dynamic conditions. While AI presents significant potential, many utilities face barriers to adoption due to fragmented data across operational technology (OT), information technology (IT), and external sources like weather systems.

Building a Practical AI Foundation

The whitepapers emphasize a structured, step-by-step approach to AI implementation, starting with the creation of a robust data infrastructure. A key enabler highlighted is GE Vernova’s GridOS Data Fabric, which allows utilities to aggregate, integrate, and contextualize data from multiple systems into a unified operational view spanning both transmission and distribution networks.

This consolidated data layer is essential for enabling advanced AI-driven applications and improving decision-making across grid operations.

AI Capabilities for Grid Optimization

The research outlines how AI can support critical operational functions, particularly in three areas: detection, prediction, and optimization. Key use cases include:

• Forecasting energy demand and generation
• Predicting system inertia and stability risks
• Preparing for disruptions caused by weather or faults
• Supporting operator decisions through virtual assistants
• Analyzing alarms and operational logs for faster issue resolution

The whitepapers also describe a phased AI adoption model that accounts for technical and regulatory risks. This progression typically begins with decision-support tools, evolves into human-in-the-loop systems, and ultimately leads to fully automated grid operations.

Enabling Scalable AI Deployment

GridOS is positioned as a foundational platform for this transformation. Designed specifically for grid orchestration, it features a microservices-based architecture, scalable deployment options, and hybrid cloud capabilities. These attributes enable utilities to implement AI solutions at different levels of maturity while maintaining flexibility and interoperability.

According to company leadership, unlocking control system data is a prerequisite for effective AI deployment. By activating and structuring this data, utilities can train AI models and deploy intelligent applications that enhance grid performance and reliability.

Industry Engagement and Collaboration

The announcement coincides with Orchestrate 2025, the company’s annual GridOS customer conference held in Boston. The event brings together more than 70 utilities from around the world to discuss innovations in grid orchestration and digital energy solutions.

About GE Vernova

GE Vernova is a global energy company focused on accelerating electrification and decarbonization. With operations in over 100 countries, it combines expertise in power generation, renewable energy, and grid technologies to support a more reliable, sustainable, and efficient energy future. Its Electrification Software and Grid Solutions businesses play a key role in enabling intelligent, data-driven energy systems worldwide.

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VADODARA, India (June 6, 2025) – GE Vernova Inc. (NYSE: GEV) announced the successful commissioning of the first 250-megawatt (MW) variable speed pumped storage unit at THDC India Limited’s Tehri Pumped Storage Hydropower Plant. The facility is part of the larger Tehri Hydropower Complex in Uttarakhand, India.

The expansion project includes four variable speed pumped storage units, each rated at 250 MW. Once all units become operational, the Tehri complex is expected to reach a total generation capacity of 2.4 gigawatts (GW), making it the largest hydropower complex in India.

In addition to supplying electricity, the Tehri reservoir system is also expected to support irrigation and drinking water needs across the region, particularly during periods outside the monsoon season.

GE Vernova was selected by THDC India Limited to provide a complete “water-to-wire” solution for the project, including hydropower generation equipment, electrical systems, power electronics, and advanced control technologies.

“With this development, Tehri becomes the first hydropower facility in India to implement variable speed pumped storage technology,” said Frederic Ribieras, CEO of GE Vernova’s Hydro Power business. “The new units are designed to rapidly switch between pumping and generation modes, allowing faster load response and significantly greater flexibility for the electrical grid. These capabilities are increasingly important as India continues integrating more renewable energy sources.”

Hydropower continues to play a major role in India’s renewable energy strategy. By early 2024, the country had installed roughly 51 GW of hydropower capacity, placing India among the world’s leading hydroelectric producers.

Pumped storage facilities operate similarly to large-scale energy storage systems. During periods of excess electricity generation, water is pumped from a lower reservoir to an upper reservoir. When energy demand increases, the stored water is released back through turbines to generate electricity. Globally, pumped storage technology currently represents the vast majority of long-duration energy storage capacity.

For the Tehri project, GE Vernova is integrating four variable speed doubly fed induction motor generators along with associated pump turbines, converters, control systems, and electrical infrastructure. The system is designed to improve operational efficiency while helping stabilize the grid during fluctuations in renewable energy production.

The Tehri Hydropower Complex currently includes:

• The 1 GW Tehri Hydropower Plant, commissioned in 2006
• The 400 MW Koteshwar Hydropower Plant, commissioned in 2012
• The 1 GW Tehri Pumped Storage Hydropower Plant, currently under expansion with four 250 MW variable speed pumped storage units supplied by GE Vernova

GE Vernova maintains a significant operational footprint in India across electricity generation, transmission, and distribution sectors. The company operates five technology and engineering centers focused on research and innovation, along with 11 manufacturing facilities supporting domestic production and employment. Its workforce in India includes more than 10,000 employees, including over 3,000 engineers and technology specialists.

About GE Vernova

GE Vernova Inc. (NYSE: GEV) is a global energy company operating across power generation, electrification, and wind sectors, supported by accelerator businesses focused on advanced energy technologies. With more than 130 years of industrial experience, the company works to help advance electrification and decarbonization worldwide. Headquartered in Cambridge, Massachusetts, GE Vernova employs approximately 85,000 people across around 100 countries.

About GE Vernova Hydro Power

GE Vernova’s Hydro Power business develops advanced technologies that harness the energy of water to deliver reliable electricity for both major economies and remote communities around the world.

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• GE Vernova will begin upgrading three GT26 gas turbines at Uniper’s Grain power station in Kent, UK, starting in 2026
• The modernization is designed to improve plant efficiency and increase electricity output while lowering carbon emissions per megawatt generated
• The same GT26 High Efficiency (HE) technology was first introduced at Uniper’s Enfield power station in 2021
• The project supports Uniper’s broader strategy to decarbonize its generation fleet while maintaining reliable power supply

LONDON, United Kingdom (June 5, 2025) – GE Vernova (NYSE: GEV) announced that Uniper has signed a long-term service agreement covering the upgrade of three GT26 gas turbine units operating at the Grain power station in Kent, England. The GT26 High Efficiency upgrade package is expected to enhance both efficiency and generation capacity while helping reduce the facility’s carbon intensity.

Bill Cliff, Power Station Manager for Uniper’s Enfield, Grain and Taylors Lane facilities, stated that improving efficiency, reliability, and operational flexibility remains essential for the long-term future of the Grain site. He noted that Uniper previously collaborated with GE Vernova during the implementation and validation of the GT26 HE upgrade at the Enfield power station, giving the company direct operational experience with the technology. According to Cliff, investments that lower emissions, strengthen reliability, and increase generation capability are vital to maintaining energy security across the UK grid.

At the Enfield facility, the earlier modernization project delivered measurable improvements in efficiency and plant performance while extending maintenance intervals for the combined-cycle gas turbine system. GE Vernova’s testing and operational data for the GT26 HE platform demonstrated the potential for approximately 25 MW of additional output per turbine unit, roughly 1% higher efficiency during part-load operation, and close to 1.8% improvement at baseload conditions. These gains can translate into fuel savings of up to $1 million annually per unit while also extending maintenance cycles to approximately 32,000 operating hours.

Joseph Anis, President and CEO of GE Vernova’s Gas Power business in Europe, the Middle East, and Africa, said the project reflects the long-standing collaboration between GE Vernova and Uniper in developing and servicing modern power infrastructure. He added that the Grain upgrade is expected to strengthen the plant’s operational reliability and long-term competitiveness within the UK electricity market. Anis also emphasized that growing electricity demand is driving utilities to invest further in efficiency upgrades and modernization programs for existing generation assets.

GT26 HE upgrade overview

The GT26 High Efficiency upgrade combines innovations from GE Vernova’s F-Class and H-Class turbine technologies. The package incorporates additive-manufactured components along with advances in combustion engineering and materials science to improve turbine performance and durability.

By the end of March 2025, the GT26 HE fleet had accumulated more than 100,000 operating hours worldwide. With 15 units sold and eight already in operation, the platform continues to demonstrate strong reliability and operational performance.

Expected benefits of the GT26 HE upgrade include:

• Approximately 2% higher baseload efficiency for combined-cycle plants
• Up to 1% efficiency improvement during part-load operation
• Increased plant output ranging from 15 MW to 55 MW per unit
• Lower fuel consumption and improved economic performance
• Extended maintenance intervals and improved operational flexibility

These performance estimates are based on GT26 2006 configuration units operating around 6,500 hours annually, including approximately 4,000 full-load operating hours each year.

About Uniper

Headquartered in Düsseldorf, Germany, Uniper operates as a major international energy company with activities in more than 40 countries and a workforce of roughly 7,500 employees. The company plays an important role in supporting energy security across Europe, particularly in Germany, the United Kingdom, Sweden, and the Netherlands.

Uniper’s portfolio includes electricity generation, global energy trading operations, and extensive gas infrastructure. The company also manages gas storage assets with a combined capacity exceeding 7 billion cubic meters and maintains long-term LNG regasification capacity at the Grain LNG terminal in Kent.

Uniper has set a target to become carbon-neutral by 2040. As part of this strategy, the company continues investing in flexible power generation technologies, renewable energy expansion, hydrogen infrastructure, and lower-carbon fuel solutions.

About GE Vernova

GE Vernova Inc. (NYSE: GEV) is a global energy company focused on Power, Electrification, and Wind technologies, supported by a range of accelerator businesses. Building on more than 130 years of industrial experience, GE Vernova develops technologies aimed at supporting electrification and reducing carbon emissions worldwide.

Headquartered in Cambridge, Massachusetts, GE Vernova operates in approximately 100 countries with around 85,000 employees globally. The company’s Gas Power business develops advanced natural gas technologies, power generation equipment, and decarbonization solutions designed to help utilities improve efficiency, reliability, and operational flexibility while supporting the transition to lower-carbon energy systems.

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Scattered across the plains near Hermleigh, Texas—a town where the horizon stretches wider than its modest skyline—the Pyron Wind Farm stands as a testament to America’s wind energy evolution. Operated by RWE, this sprawling installation features 166 towering turbines near Lubbock, each rising 400 feet above the land of 70 property owners. Capable of powering 53,000 homes simultaneously, the site also integrates a cutting-edge battery storage system to manage surges in energy demand.

Commissioned in 2009, Pyron’s turbines have entered their third decade of service, mirroring a nationwide trend. U.S. wind capacity has surged from 2.4 gigawatts (GW) in 2000 to 150 GW by 2024, according to federal data. In 2023, wind energy accounted for over 10% of the nation’s electricity, cementing its role as the largest renewable power source.

With global electricity demand accelerating and aging infrastructure straining under modern needs, GE Vernova offers a dual solution: the Repower program. “Repower extends turbine lifespans while integrating cutting-edge technology,” explains Uzair Memon, GE Vernova’s Onshore Wind services chief commercial officer. “It’s a rapid way to boost grid output using existing infrastructure.”

Over a decade ago, GE Vernova—then part of General Electric—anticipated a looming challenge: thousands of turbines nationwide nearing end-of-life. The company realized that replacing components atop existing towers, though complex, could outpace full decommissioning in speed, simplicity, and cost.

This insight birthed the Repower initiative, which upgrades turbines—from blades to gearboxes, rotors, and generators—with minimal operational disruption.

The GE Vernova facility in Pensacola, Florida, where workers assemble the massive machine heads that house the gears and generators for new units used in the Repowering program. All images: GE Vernova

“We’re revitalizing aging turbines with proven technology,” says Matt Lynch, GE Vernova’s Repower general manager. “By leveraging standardized designs and scalable installations, we enhance reliability and performance. Our focus on established products ensures predictable outcomes for customers.”

Pyron exemplifies Repower’s potential. Completed in 2024, the project replaced all 166 turbines with GE Vernova’s widely deployed 1.6-megawatt (MW) models. Reusing towers, foundations, and grid connections, the upgrade is expected to extend the site’s operational life by two decades, minimizing local infrastructure disruption, as Memon notes.

The Power of Repowering

Pyron ranks among GE Vernova’s largest Repower projects, though the company executed multiple initiatives in 2024 alone. Orders for 1 GW of repowered capacity this year are being fulfilled through U.S. manufacturing hubs, including Pensacola’s $70 million investment since 2023—a fraction of the $600 million CEO Scott Strazik pledged for domestic production in January.

“As U.S. electricity demand is projected to rise 50% by 2044, Repower empowers American workers to maximize existing assets,” Lynch emphasizes.

Kellan Dickens, GE Vernova’s Repower product leader, highlights cost efficiencies from using validated, mass-produced components. “The 2.8-MW workhorse model, for instance, delivers enhanced durability when operating at 1.9 MW post-repower,” he adds. Projects vary: some replace entire drivetrains and rotors, others retain towers but upgrade heads, hubs, and blades. Common goals remain: higher output, reliability, longevity, and reduced maintenance costs.

Above and top: Repowering helps rejuvenate fleets of older 1-MW turbines like these.

GE Vernova’s streamlined process separates turbines from towers and installs new units in under 24 hours. “A 600-ton crane lifts the entire machine head and rotor after a precise tower cut,” Dickens describes. Workers then fit a three-meter adapter before mounting the updated equipment. “Witnessing this 20-story-high operation unfold swiftly is remarkable,” he adds.

New components arrive via specialized trucks—some with 13 axles—from Pensacola and Amarillo, Texas, where remanufacturing occurs.

Meeting the Needs of Every Site

While full wind farm repowers thrive, single-turbine upgrades rely on Amarillo’s flexible production. “Our Texas facility crafts six configurations daily, spanning legacy and next-gen models,” says Kiersten Gregory, Onshore Wind parts leader. “One day we build drivetrains for older turbines, the next for new fleets.”

When a single wind turbine needs an overhaul, the Amarillo, Texas, facility is called upon to produce a wide range of specific products.

“Repower isn’t just about turbines—it’s about sustaining facilities and skills,” Gregory notes. “We’re revitalizing infrastructure while nurturing technical expertise in America’s wind belt.”

“This is a sustainability story,” Memon concludes. “Repower boosts efficiency, extends asset lifespans, and cuts operational costs. It preserves local jobs and creates pathways for technicians to grow with new technology—all while advancing a circular economy.”

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• Five GE Vernova H-Class gas turbines will support the expansion of the Qurayyah Independent Power Plant in Saudi Arabia
• The project includes three 7HA.03 units and two 7HA.02 turbines for a new 3 GW combined-cycle facility
• The plant is expected to be designed with readiness for future post-combustion carbon capture integration
• Expansion aligns with Saudi Arabia’s Vision 2030 strategy to increase gas-fired generation and expand renewable energy capacity

RIYADH, Saudi Arabia (May 28, 2025) – GE Vernova (NYSE: GEV) announced that it has received an order for five advanced H-Class gas turbines from Técnicas Reunidas and Orascom Construction. The order includes three 7HA.03 turbines and two 7HA.02 units that will be installed as part of the Qurayyah Independent Power Plant (QIPP) Expansion Project in Saudi Arabia’s Eastern Province.

Técnicas Reunidas and Orascom Construction are executing the Engineering, Procurement, and Construction (EPC) contract for the project through a 50-50 joint venture partnership.

The Qurayyah expansion project will add approximately 3 gigawatts of combined-cycle gas-fired generating capacity to the Kingdom’s power network. The facility is also being developed with the capability to potentially integrate post-combustion carbon capture technologies in the future.

Saudi Arabia continues expanding its combined-cycle gas power fleet as part of a broader national strategy to generate 50% of electricity from natural gas and the remaining 50% from renewable energy sources by 2030. The initiative supports the Kingdom’s long-term target of achieving net-zero greenhouse gas emissions by 2060.

Earlier in 2025, Hajr Two Electricity Co. — jointly owned by ACWA Power, Saudi Electricity Company (SEC), and Haji Abdullah Alireza & Co. Ltd — signed a Power Purchase Agreement with Saudi Power Procurement Company (SPPC) for the QIPP Expansion Project.

Representatives from Hajr Two Electricity Co. described the development as a strategically important project that will strengthen Saudi Arabia’s electricity infrastructure while supporting the transition toward a more diversified and sustainable energy mix under Saudi Vision 2030. The company also highlighted its collaboration with Técnicas Reunidas, Orascom Construction, and GE Vernova in delivering the project.

Joseph Anis, President and CEO of GE Vernova’s Gas Power business in Europe, the Middle East, and Africa, said the Qurayyah project demonstrates Saudi Arabia’s confidence in natural gas as a lower-emission alternative to oil-based power generation. He noted that GE Vernova’s ongoing partnership with Técnicas Reunidas and Orascom Construction builds on extensive experience in combined-cycle plant engineering and integration.

Anis also emphasized that the deployment of GE Vernova’s advanced H-Class turbine technology could support future carbon capture implementation, helping further reduce emissions from gas-fired generation assets in Saudi Arabia.

GE Vernova has maintained a presence in Saudi Arabia for nearly 90 years and continues supporting the Kingdom’s energy infrastructure development, industrial localization, workforce development, and economic diversification goals connected to Vision 2030.

The company currently employs approximately 850 people across Saudi Arabia. Its investments in the country include the Khobar Integration Facility (KIF) for grid technologies and the GE Manufacturing and Technology Center (GEMTEC) campus in Dammam. The campus includes gas turbine service and repair operations, the GE Saudi Advanced Turbines (GESAT) manufacturing facility, the GE MENA Decarbonization Center of Excellence, and a Monitoring & Diagnostics Center that remotely supervises power generation assets.

About GE Vernova

GE Vernova Inc. (NYSE: GEV) is a global energy company focused on Power, Electrification, and Wind technologies, supported by a range of accelerator businesses. With more than 130 years of industrial and energy experience, the company develops technologies aimed at supporting electrification while advancing decarbonization efforts worldwide.

Headquartered in Cambridge, Massachusetts, GE Vernova operates in approximately 100 countries and employs around 85,000 people globally. Its Gas Power division develops advanced natural gas technologies, high-efficiency turbine systems, and decarbonization solutions designed to support lower-carbon and more flexible electricity generation.

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• ENEC and GE Vernova Hitachi signed a new memorandum of understanding to evaluate international deployment of the BWRX-300 small modular reactor technology
• The agreement expands collaboration first launched during COP28 in Dubai in 2023 under ENEC’s ADVANCE program
• The companies will jointly assess development pathways including licensing, investment strategies, supply chain readiness, and site selection
• The initiative reflects growing global demand for reliable, low-carbon electricity, particularly from AI and technology-driven industries

ABU DHABI, UAE (May 27, 2025) – The Emirates Nuclear Energy Company (ENEC) and GE Vernova Hitachi Nuclear Energy (GVH) announced the signing of a new memorandum of understanding during the World Utilities Congress in Abu Dhabi. The agreement focuses on jointly evaluating opportunities for the international deployment of the BWRX-300 small modular reactor (SMR) technology.

The new memorandum builds on a previous agreement signed during COP28 in Dubai in 2023, when the two organizations began cooperating under ENEC’s ADVANCE program, an initiative focused on accelerating the evaluation and potential deployment of advanced nuclear technologies.

The signing ceremony took place during a private event at the World Utilities Congress. The agreement was formally exchanged by His Excellency Mohamed Al Hammadi, Managing Director and CEO of ENEC, and Maví Zingoni, CEO of GE Vernova’s Power segment.

Under the terms of the memorandum, both organizations will collaborate on the development of a comprehensive deployment roadmap. Areas of focus include identifying suitable sites, evaluating regulatory and licensing pathways, supporting commercialization and investment planning, and strengthening supply chain capabilities.

Mohamed Al Hammadi stated that the agreement represents the next phase of cooperation between ENEC and GE Vernova Hitachi as the UAE continues advancing civil nuclear energy development domestically and internationally. He noted that combining operational expertise with advanced reactor technology development can help establish safe, efficient, and scalable nuclear deployment models capable of meeting rising global electricity demand in a sustainable manner.

Maví Zingoni said that small modular reactors are expected to play a major role in strengthening future energy security and supporting lower-carbon electricity systems. She added that expanding collaboration with ENEC reinforces GE Vernova Hitachi’s relationship with the UAE while supporting broader international deployment efforts for the BWRX-300 technology.

ENEC brings substantial operational and project execution experience through its role as developer and operator of the Barakah Nuclear Energy Plant in Abu Dhabi. The four-unit nuclear facility currently supplies approximately 25% of the UAE’s electricity needs and was brought online over a highly efficient development timeline of less than eight years per unit. ENEC also operates in alignment with international nuclear safety and operational standards through its membership in the World Association of Nuclear Operators (WANO) Atlanta Center.

GE Vernova Hitachi Nuclear Energy, through the long-standing alliance between GE Vernova and Hitachi, develops advanced nuclear technologies including boiling water reactors and the BWRX-300 small modular reactor platform. The BWRX-300 is designed as a simplified and scalable reactor solution intended to improve deployment efficiency and operational economics.

Recent milestones have strengthened momentum for the technology. Earlier in May 2025, Ontario Power Generation and the Province of Ontario approved construction of the first BWRX-300 unit at the Darlington nuclear site in Canada. Shortly afterward, the Tennessee Valley Authority submitted a construction permit application for the first BWRX-300 deployment in the United States. These projects are expected to make the BWRX-300 the first SMR technology deployed commercially in the Western world.

Engineering and technology development for the reactor platform is led from GE Vernova Hitachi’s nuclear headquarters in Wilmington, North Carolina.

As part of the next phase of collaboration, technical teams from ENEC and GE Vernova Hitachi will jointly evaluate deployment strategies for the BWRX-300 under the ADVANCE program framework. ENEC continues exploring investment, partnership, and deployment opportunities both inside the UAE and internationally to expand access to clean baseload nuclear energy and strengthen long-term energy security.

About the Emirates Nuclear Energy Company

The Emirates Nuclear Energy Company (ENEC), part of ADQ, was established in 2009 to oversee the UAE’s peaceful nuclear energy program. ENEC leads development and operation of the Barakah Nuclear Energy Plant, which currently generates approximately 40 terawatt-hours of electricity annually while avoiding more than 22 million tons of carbon emissions each year.

In addition to managing Barakah operations, ENEC is pursuing opportunities in advanced nuclear technologies, including small modular reactors and next-generation reactor systems, through its ADVANCE initiative.

About GE Vernova Hitachi Nuclear Energy

GE Vernova’s Nuclear Power business, through its alliance with Hitachi, is a global supplier of nuclear fuel, reactor technologies, engineering services, and advanced reactor designs. Its portfolio includes boiling water reactors and the BWRX-300 small modular reactor platform.

Global Nuclear Fuel (GNF), a GE Vernova-led joint venture with Hitachi, supplies boiling water reactor fuel and related engineering services through operations in the United States and Japan.

About GE Vernova

GE Vernova Inc. (NYSE: GEV) is a global energy company focused on Power, Electrification, and Wind technologies. With operations in approximately 100 countries and around 85,000 employees worldwide, the company develops technologies designed to support electrification, grid reliability, and long-term decarbonization goals across the global energy sector.

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• GE Vernova’s trailer-mounted TM2500* aeroderivative gas turbine technology is expected to deliver rapid and dependable electricity generation ahead of anticipated summer peak demand in Nassau, Bahamas
• Flexible TM2500 units are designed to support grid reliability and reduce the risk of electricity shortages
• The project supports temporary expansion of the Clifton Pier power facility on New Providence Island

THE BAHAMAS (May 22, 2025) — GE Vernova Inc. (NYSE: GEV) announced that its TM2500* mobile aeroderivative gas turbine technology is expected to provide fast-track power generation capacity in The Bahamas, helping the country address rising electricity demand during the summer season and reduce the likelihood of power disruptions.

Tourism in the country continues to grow rapidly, with more than 9.6 million visitors recorded in 2023 — the highest level in the nation’s history — significantly increasing electricity consumption in a country with a population of roughly 400,000 people. To help support the growing demand, Bahamas Turbines Limited (BTL), a subsidiary of FOCOL Holdings Limited, placed an order for two TM2500 aeroderivative gas turbine packages to temporarily expand the Clifton Pier power station located on New Providence Island.

“Reliable electricity is essential for economic development and modern living, and our aeroderivative mobile technologies are designed to deliver fast power wherever it is needed, both on-grid and off-grid,” said Dave Ross, CEO of GE Vernova’s Gas Power business in the Americas. “With more than five decades of presence across the Caribbean and Central America, we are pleased to support BTL in strengthening generation capacity and improving energy reliability for residents and the tourism industry.”

Although the Caribbean region has significant renewable energy potential, many islands still rely heavily on heavy fuel oil and diesel generation. Solar energy also presents an important opportunity for The Bahamas, but integrating larger amounts of renewable generation requires a stable and responsive electricity grid.

“Given GE Vernova’s ability to rapidly deploy mobile gas turbine technology and associated plant equipment, we selected their TM2500 solution to meet our need for fast, flexible, and transportable generation capacity,” said Dexter Adderley, President & Chief Executive Officer of FOCOL Holdings Limited. “As renewable energy projects continue to expand and introduce more variability into the system, GE Vernova’s mobile aeroderivative units — each capable of generating up to 30 megawatts of electricity — are expected to support grid frequency stabilization, reduce outages, and help enable additional renewable integration.”

GE Vernova’s aeroderivative technologies are supporting utilities and operators throughout the region as they transition away from traditional heavy fuel oil-based generation toward fuels with lower carbon emissions, including natural gas and diesel. The TM2500 units are designed for high operational flexibility and can ramp up to full output within minutes, enabling operators to quickly respond to spikes in electricity demand while efficiently reducing generation when consumption declines.

About GE Vernova

GE Vernova Inc. (NYSE: GEV) is a global energy company focused on Power, Wind, and Electrification technologies, supported by accelerator businesses. With more than 130 years of industrial experience, the company is helping drive the energy transition by supporting both electrification and decarbonization efforts worldwide. Headquartered in Cambridge, Massachusetts, GE Vernova operates in approximately 100 countries with around 85,000 employees.

GE Vernova’s Gas Power business develops advanced natural gas power generation technologies, services, and decarbonization solutions aimed at enabling a lower-carbon energy future. The business remains one of the world’s leading providers of gas turbines and power plant technologies with one of the industry’s largest installed fleets.

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GE Vernova has released two new whitepapers focused on how artificial intelligence can be applied to enhance the intelligence and performance of modern electricity grids. These publications are part of a broader research series examining AI use cases across grid operations, system planning, and energy market dynamics.

Addressing Growing Grid Complexity

Utilities today are operating in an increasingly complex environment. The integration of renewable and distributed energy resources—such as rooftop solar and battery storage—introduces variability that complicates grid balancing. At the same time, the rapid growth of data centers and widespread electrification is driving higher and more concentrated demand, often with unpredictable load patterns.

Additional pressures, including extreme weather events and rising cybersecurity risks, further challenge grid resilience. Traditional operational models are no longer sufficient to manage these dynamics effectively. While AI presents significant potential, its implementation remains difficult due to fragmented data across operational technology (OT), information technology (IT), and external data sources like weather systems.

Building a Foundation for AI

The whitepapers emphasize a structured and practical approach to AI adoption, starting with the creation of a robust data foundation. A key enabler in this process is GridOS Data Fabric, which allows utilities to unify and contextualize data from multiple sources into a single, integrated view spanning both transmission and distribution systems.

This unified data layer is essential for deploying AI-driven applications that can deliver actionable insights and improve operational efficiency.

Enhancing Grid Operations with AI

A central focus of the research is the role of AI in real-time and near-real-time grid operations. The technology is positioned as a critical tool for improving detection, forecasting, and optimization capabilities. Key areas highlighted include:

Managing variability from intermittent renewable generation and distributed energy resources
Addressing rising peak demand and multi-directional power flows
Preparing for and responding to severe weather disruptions
Supporting operators with advanced decision-making tools

The whitepapers also outline a phased AI adoption framework that accounts for both technical and regulatory risks. This progression typically begins with decision-support systems, advances to human-in-the-loop models, and ultimately leads to higher levels of automation.

Emerging AI Capabilities

GE Vernova identifies several current and emerging AI and machine learning applications in grid management, including:

• Load and generation forecasting
• Inertia and stability prediction
• Disruption detection and response planning
• Virtual operator systems for decision support
• Alarm and log data analysis

These capabilities are designed to improve situational awareness, streamline operations, and enhance overall grid reliability.

The Role of GridOS

The company highlights its GridOS platform as a purpose-built solution for grid orchestration. Designed with a microservices-based architecture, it supports scalability, modular deployment, and hybrid cloud environments—key requirements for AI-enabled systems. By providing a dedicated data foundation and flexible deployment model, GridOS enables utilities to adopt AI at different levels of maturity and operational complexity.

According to Mahesh Sudhakaran, General Manager of GE Vernova’s Grid Software business, unlocking control system data is fundamental to AI deployment in power networks. The company’s strategy centers on helping utilities activate AI-driven applications and develop models that enable more intelligent grid orchestration.

Industry Engagement

The release of these whitepapers coincides with Orchestrate 2025, GE Vernova’s annual user conference, held in Boston. The event brings together more than 70 global utilities to discuss advancements in grid technology and digital transformation.

About GE Vernova

GE Vernova is a global energy company dedicated to advancing electrification and decarbonization. With operations in over 100 countries, the company combines expertise in power generation, renewable energy, and grid technologies to support the transition to a more sustainable and resilient energy system. Its Electrification Software division focuses on delivering intelligent applications that optimize how energy is generated, managed, and consumed across the entire ecosystem.

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