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Boosting Turbine Output with The TURBOPULSE T10 

ASME’s Turbomachinery Technical Conference & Exposition 2025 (Turbo Expo), held June 16 – 20 at the Renasant Convention Center in Memphis, Tennessee, welcomed more than 2,100 attendees and featured 127 exhibiting companies. The theme for this year’s conference,"The Transformative Impact of Artificial Intelligence (AI)," focused on how AI is revolutionizing engineering fields, including predictive maintenance, design optimization, and advanced manufacturing.

“Experts from prominent companies around the world gathered to discuss the challenges facing turbomachinery with the advent of AI,” said Angelique Vesey, Senior Director, TEC Strategy & Operations at ASME. “Mark Spieler, the Senior Managing Director of Energy at NVIDIA, participated in these discussions, highlighting how NVIDIA is collaborating with various firms to tackle some of the industry's most difficult issues. We also hosted a plenary panel session featuring representatives from GE Aerospace, RTX, and Siemens Energy, where we engaged in a dialogue about the impact of AI on the turbomachinery industry.”

Discussions among turbomachinery and propulsion engineering experts from industry, academia, and government confirmed that decarbonization remains a key driver for technological progress, energy efficiency, and overall design strategies. Hydrogen capabilities continue to be explored and achieve new milestones, with several OEMs sharing recent turbomachinery advancements that support hydrogen at various percentage volumes.

“Turbo Expo has been covering the most cutting-edge technologies in the industry for almost seven years,” Vesey said. “This year, some of the major trends we are observing include AI and a focus on sustainability, as well as workforce development. Turbo Expo provides a platform for people from various industries involved with turbomachinery to connect and engage directly with experts from around the world, all gathered in one place.”

Several panel discussions centered on AI and digitalization and their impact on the industry. Many OEMs shared technological updates and insights into how AI is being incorporated into their processes and innovations. A few highlights include:

Envisioning the Future of Gas Turbines with AI

, featuring panelists Richard Voorberg of Siemens Energy, Paul Sloup of GE Aerospace, and Pete Bradley of RTX Pratt & Whitney, provided perspectives on the current and future vision of working with AI in gas turbine technology and a few key takeaways for the turbomachinery industry:

AI optimizes design processes, improves manufacturing, enhances product performance, and drives innovation across the entire product lifecycle.

Successfully implementing AI requires more than just technology—it demands building an AI-ready culture that encourages experimentation, reduces fear of change, and empowers engineers to leverage new tools creatively.

The industry recognizes that AI advancement cannot happen in isolation. Companies are calling for increased data collaboration, shared learning, and community-wide approaches to solving complex challenges in turbomachinery and energy systems.

AI is not just a technological upgrade, but a fundamental reimagining of how the turbomachinery industry develops, manufactures, and operates its systems.

OEM Pathways Forward: Advancing Gas Turbine Innovation

, included insights from Ansaldo Energia, Solar Turbines, and Siemens Energy.

Ansaldo’s GT36 can burn 70% volume of hydrogen, which has been demonstrated in a rig under full conditions (pressure, temperature, etc.). Its other units can burn between 40 and 45% hydrogen.

John Mason of Solar Turbines identified a few macro trends from the past 12 – 18 months as the share of intermittent renewables has begun to increase in the energy supply chain: grid stability/resiliency, decarbonization, and energy affordability and availability.

“We share common suppliers with our commercial aviation gas turbine companies, our military aviation, and the industrials, and this is creating challenges for availability as lead times become longer, and even affordability as prices are going up,” Mason said.

He pointed out that the challenge of grid resiliency is well understood. “You add to that the emergence of AI data centers and grid inability—that word was chosen correctly because, quite frankly, grids are not able to meet the rapid demand for power that data centers need, so this is creating a challenge commonly referred to as the Power Challenge,” he said. “Interestingly, data center growth is not paced by technology; it's paced by the availability of electricity.”

Dr. Ghenadie Bulat of Siemens Energy highlighted several important demonstrations, including:

The world's first 10-MW carbon-free grid power from a 100% hydrogen gas turbine.

A successful test of 100% methanol combustion with its partners at the Net Zero Technology Center in Aberdeen.

Involvement in a feed study for a U.K. carbon-capture project that is expected to reduce nearly 1 million tons of CO2 annually.

The Role of Artificial Intelligence in Gas Turbine Combustor Design,

 discussed integrating computational tools, machine learning-assisted reduced-order modeling, automated design optimization, and data-driven diagnostics with gas turbine combustor design.

Werner Krebs, Ph.D., of Siemens Energy said that AI can navigate massive design spaces with hundreds of parameters, generating design proposals that meet specific engineering requirements like NOx emissions, pressure drop, and thermostatic stability. The approach allows for rapid exploration of design possibilities beyond traditional engineering methods.

He stressed that the success of generative AI depends on the quality of underlying computational tools and data, such as sophisticated GPU clusters and an understanding of physical principles, to generate meaningful design proposals. But most importantly, despite the advanced technological capabilities, AI is a tool to augment, not replace, human engineering expertise.

Robert Zacharias, Ph.D., of GE Aerospace Research, showcased a sophisticated approach to solving complex engineering challenges using AI and computational techniques. By creating a surrogate model, the team could explore hundreds of thousands of design combinations quickly, reducing computational time from days to milliseconds.

The next frontier of design optimization is inverse neural networks. Instead of traditional methods of exploring design spaces, the goal is to "flip the problem over", allowing engineers to input desired outputs and have the system generate potential design solutions, fundamentally transforming the design process.

Micro-Gas Turbines: Technological Advancements and Market Research

, emphasized that smaller turbines must focus on specialized markets, cost reduction, and continued technological refinement to remain competitive.

Giuseppe Tilocca said micro-gas turbine technology suffers from competition from internal combustion engines, advancing fuel-cell technologies, and growing electrification trends. But, despite challenges, micro-gas turbines offer some unique benefits:

Single exhaust stream that’s ideal for hybrid heat applications.

Excellent performance with renewable and difficult fuels.

"Micro-gas turbines are a niche product. If you try to market them as a mass product, you will not succeed,” Tilocca said.

Micro-gas turbines may have a low market assessment, but they show promise in renewable fuel and biogas, and decentralized power applications. Considerations such as equipment cost reductions, improved overall efficiency, scaled-up production, and targeted niche applications are critical. When exploring hydrogen applications, Tilocca said you have to balance efficiency and cost—equipment costs become increasingly important as hydrogen fuel prices decrease.

Antonio Escamilla Perejon highlighted the intricate trade-offs with micro-turbines: system size, performance, and cost that must be considered when designing and implementing them across diverse power output ranges.

Several advancements have been made through various micro-gas turbine research projects that are pushing the boundaries of sustainable energy technologies, including:

Innovative applications such as using micro-gas turbines as fuel-cell replacements for aircraft auxiliary power units.

Harmonizing micro gas turbines with water treatment plants.

Exploring sophisticated hybrid systems with fuel cells.

Rigorously investigating sustainable biofuel applications.

Looking ahead, the development drivers are focused on increasing turbine temperature, leveraging advanced materials, achieving significant cost reductions, and exploring novel external fire and hybrid configurations to continuously improve efficiency and performance.

A significant challenge for women in the turbomachinery sector is the scarcity of visible female role models. 

, co-program curator of the Celebrating Women in Turbomachinery dinner and Vice President of Business Operations for North America at Siemens Energy, shared her insights into challenges and pathways for women in the industry.

“The biggest issue for women in turbomachinery is the lack of role models,” Scofield said. “We see fantastic women in the industry, but not enough of them exist. From an OEM perspective, statistics show that men and women join companies like Siemens Energy, GE, and Mitsubishi around the same age, typically around 21 to 23 years old. However, seven or eight years into their careers, when they're gaining enough experience to become first-time managers or team leads, they leave companies like ours. The question has always been why. One of the things we've uncovered at Siemens Energy is that there's simply not enough role models in our specific industry, and we need to continue fostering and promoting that.”

Scofield said events like Turbo Expo and its Celebrating Women in Turbomachinery dinner are crucial for addressing the underrepresentation of women in the industry by offering platforms for networking, shared experiences, and fostering a sense of community, thereby empowering women and creating vital support systems.

Check out additional conference coverage and exclusive video interviews on our 

AI is revolutionizing design, manufacturing, and operations while simultaneously advancing decarbonization efforts and addressing workforce development challenges.

Conference Coverage

Turbo Expo 2025 Spotlights AI and Decarbonization

IHI Corp. (IHI) and GE Vernova completed a new large-scale combustion test facility in Hyogo, Japan, at IHI’s Aioi Works facility. It’s designed to test advanced combustion systems at GE Vernova’s F-class gas turbine operating conditions, including pressure, temperature, air, and fuel flow rates. The end goal is to develop a commercially viable 100% ammonia-powered gas turbine by 2030.

“This announcement signals a shift from initial studies on the ammonia value chain to the practical implementation of technologies and engineering projects, aiming to decarbonize power generation by using ammonia as a fuel,” said Jeffrey Goldmeer, GE Vernova Senior Director, Technology Strategy. “This marks a new phase of collaboration between GE Vernova and IHI, with the goal of developing decarbonization pathways that safeguard existing power generation investments.”

This summer, IHI will be conducting rigorous combustion tests using full-scale prototype combustors operating on 100% ammonia. IHI will bring its ammonia combustion expertise, and GE Vernova will bring its global technical teams and shared best practices developed at GE Vernova’s advanced combustion test facility in Greenville, South Carolina.

“This milestone marks a significant step forward in the joint technology roadmap sealed with a Joint Development Agreement in 2024, aiming to lead to a 100% ammonia-capable combustion system by 2030,” said Kensuke Yamamoto, IHI Executive Officer, VP of Business Development Division, and GM of Ammonia Value Chain Project Department. “IHI has developed a 100% ammonia firing gas turbine IM270 (output 2MW) and will level the technology to develop large-scale combustion technology. IHI’s combustor development role lies in this new flagship test facility, which will be a crucial hub for IHI’s and GE Vernova’s project. The establishment of the large-scale combustion test facility underscores IHI’s and GE Vernova’s commitment to driving innovation in more sustainable energy solutions, with ammonia as a promising fuel for future power generation.”

This project falls under the joint development agreement that the two companies signed in 2024. 

 of the agreement and combusting ammonia in an interview with 

“The fundamental question then is what combustion system resolves the fundamental chemistry issue, because this is a chemistry issue,” Goldmeer said. “The science itself behind these systems isn’t new but the application is.”

Today, GE Vernova’s technology either runs at or near stoichiometric—i.e., fuel and air in perfect chemical balance—or on the lean side, but the rich side of the stoichiometric dome—fuel-rich and oxygen lean—provides less air for the nitrogen to turn into NOx when using ammonia. To this point, GE Vernova and IHI are developing a two-stage combustion system with a rich dome to resolve the ammonia-NOx problem—building upon IHI’s development of a 2-MW gas turbine using 100% liquid ammonia and GE Vernova’s expertise in engineering and manufacturing of gas turbine combustion systems and balance of plant systems.

“The solution is we don’t take today’s combustion systems and repackage them; we go back to the fundamental science of combustion and look for the answer there and it gives us the answer,” Goldmeer said. “We’ll be focused on the technological development and technical deliverables, aiming for the validation of the combustion technology in the next two years and a potential commercially available product by 2030.”

IHI and GE Vernova are co-developing a new gas turbine combustor to burn up to 100% ammonia in GE Vernova’s F-Class gas turbines.

GE Vernova, IHI Complete Construction of New Combustion Test Facility to Develop Ammonia Gas Turbine 

Atlas Copco Comptec LLC broke ground on Tuesday, June 10, 2025, on its 63,000-square-foot expansion of its manufacturing facility in Voorheesville, NY, boosting its manufacturing space to support the production of large integrally geared centrifugal compressors. The expansion is expected to be completed before the end of 2026.

“We’re proud to call Albany home and have been part of this community for 45 years,” said Randy Dirlam, General Manager at Atlas Copco Comptec LLC, part of Gas and Process division within Atlas Copco Group. “This expansion project, the result of collaboration with local and state economic teams, ensures we can continue to produce even more products to better serve our customers and fuel future growth.”

The NY-based, 45-acre manufacturing facility serves several markets, including oil and gas, offshore projects, carbon capture and sequestration, hydrogen mobility, energy storage, heat pumps, decarbonization, and air separation. The expansion is to better serve these markets and provide custom fits to meet the needs of producing large, highly engineered products. New equipment includes:

enhanced logistics and warehousing capabilities, and

testing systems aligned with the stringent standards.

Over the past five years, several million dollars have already been invested in upgrading the facility, including enhancements to testing capabilities, infrastructure improvements, and the addition of heat pumps to boost operational efficiency.

 launched a dual-speed vertical drive train compressor model: GA 11-30 FLX. Compared to the company’s traditional fixed-speed compressor portfolio, the GA 11-30 FLX requires up to 20% less energy during usage, and the vertical drive train allows for a compact, space-saving design. Utilizing a dual-speed drive train and motor, this compressor minimizes start-up peak, unload power, and transient losses when compared to Atlas Copco’s established compressor offerings.

The GA 11-30 FLX is not limited by the maximum working pressure of the compressor. The design uses optimal power to deliver the maximum quantity of air at all set pressures, allowing for a more efficient and sustainable operation. A 20% reduction in energy usage lowers the global impact of compressor operations, as 5% of the current global energy consumption is occupied by compressors.

“At Atlas Copco Industrial Air, we work toward a more sustainable world every day. We are the cradle where tomorrow’s innovative industrial ideas are shaped, with a focus on environment and people,” said Joeri Ooms, Divisional President, Atlas Copco Industrial Air. “GA 11-30 FLX is our best fixed-speed compressor and is our answer to clients’ demands for more energy efficiency.”

The GA 11-30 FLX operates differently than other fixed-speed machines in the compressor market, as traditional models are only capable of delivering optimal flow for their own pressure variant. High-pressure fixed-speed compressors provide less air at lower pressures and lower pressure designs are incapable of operating at higher pressures, setting the GA 11-30 FLX apart from its alternatives with the aforementioned optimal flow adaptability.

The expansion includes an additional 63,000 square feet of new manufacturing space for large integrally geared centrifugal compressors. 

Atlas Copco Comptec Breaks Ground on NY Manufacturing Facility Expansion

In late May, GE Vernova announced that it is sending its 

trailer-mounted TM2500 mobile aeroderivative solution to the Bahamas

 to support the upcoming influx of tourists and mitigate power shortages. The mobile unit is expected to generate 30 MW of electricity for the area.

These mobile units offer rapid deployment and quick power generation, crucial for meeting peak demand and stabilizing grids with increasing renewable energy.

To shed light on how GE Vernova is addressing the rising demand for reliable power during summer months and how its mobile aeroderivative solutions give islands such as the Bahamas a means to modernize their power generation systems and provide stable, affordable electricity,

 interviewed Midhat Mirabi, GE Vernova’s Managing Director of Aero New Units.

TURBO: How is GE Vernova leveraging the growing global demand for reliable power, especially in regions with increasing tourist populations or transitioning to higher renewable energy penetration?

 GE Vernova is strategically addressing the rising global demand for reliable power by focusing on modular, flexible solutions tailored to the specific needs of regions like the Caribbean. The growth in electrification and tourism has driven a surge in energy demand—tourists typically consume more electricity due to amenities, such as air conditioning, placing additional strain on local grids.

Many Caribbean islands are small and lack the space or infrastructure for large traditional power plants. GE Vernova’s aeroderivative solutions are ideal here: modular, compact, and rapidly deployable, making them well-suited for regions with spatial constraints. Their modularity also reduces execution risks, thereby improving project bankability and financial viability.

Additionally, the increasing availability of gaseous fuels such as LNG and liquid ethane in the Caribbean provides cleaner, more efficient, and cost-effective alternatives to traditional heavy fuel oils. This fuel shift enables islands to modernize their power generation systems, moving away from older, less efficient technologies to cleaner, more sustainable solutions that support both economic growth and environmental objectives.

TURBO: Beyond supporting tourism and acting as a bridge for renewable integration, what other specific applications or industries is GE Vernova seeing an increasing need for its mobile aeroderivative solutions like the TM2500?

 When the first TM2500 unit was deployed in the Bahamas in 2020, the primary objective was to address anticipated peak power demands for the summer, following brownouts in 2019 caused by excessive demand. The TM2500 provided not only additional power but also significantly enhanced frequency stability, enabling greater renewable energy integration by addressing variability challenges.

Beyond its core applications, the TM2500’s flexibility and modular design have become increasingly vital in supporting the rapid expansion of hyperscale data centers. As the AI race accelerates, speed-to-power is emerging as a critical competitive differentiator. These facilities often require large-scale, dependable power well before permanent infrastructure is in place. The TM2500 enables fast, reliable bridge power to meet aggressive deployment timelines. Once permanent systems are established, the unit can continue as a primary or backup power source, or be redeployed, delivering portability, reusability, and long-term value.

A prime example is the deployment of seven TM2500 units to Ecuador during the 2009 hydro crisis. Facing severe power shortages, Ecuador rapidly installed these units in Pascuales, near Guayaquil, as part of the “Luces de Navidad” (Christmas Lights) project to stabilize the grid and ensure sufficient power through the holiday season. After water levels recovered, the units were relocated to Machala, a site nearby. In Machala, the TM2500s transitioned from their original emergency role to serving as peakers and grid stability providers, eventually evolving to operate as baseload units in response to sustained demand. Notably, some of these TM2500s remain in operation in Ecuador more than 15 years later, highlighting not just their effectiveness in crisis response but also their long-term utility and durability across evolving energy needs.

This example underscores the TM2500’s ability to provide both immediate relief in emergencies and sustained value for long-term applications across diverse industries beyond tourism and renewable integration.

TURBO: What are the typical setup and teardown times for a complete mobile power plant like the one sent to the Bahamas? What resources or services does GE Vernova provide to expedite and support these processes?

 The TM2500 and LM2500XPRESS units are specifically engineered for rapid deployment. Typically, these units can be set up within approximately two weeks with a team of around 20 people. The LM2500XPRESS requires a 220-ton crane, while the TM2500 needs only a 40-ton crane. Thanks to their modular design and a limited number of mechanical and electrical interconnections—only 25 pre-manufactured and labelled electrical cables—installation is both fast and low-risk.

In the Bahamas, the first TM2500 was installed and commissioned by GE Vernova in one month, reflecting a planned, non-emergency deployment timeline. Typically, GE Vernova provides supervisory engineers while local engineering, procurement, and construction (EPC) or engineering firms perform the installation. This hybrid model accelerates project execution by leveraging local capabilities, reduces costs, and builds in-country technical capacity.

An example of the TM2500’s rapid deployment was demonstrated at GE Vernova’s manufacturing center in Veresegyhaz, Hungary, where a fully operational TM2500 was shut down, decommissioned, transported to another site, and returned to full power within just 48 hours. Although this operation was carried out by factory personnel who were deeply familiar with the equipment, it illustrates the remarkable speed and efficiency achievable with these mobile power units.

TURBO: As islands like the Bahamas increasingly rely on renewables, how does GE Vernova's mobile power technology specifically contribute to improving grid frequency control and enabling the seamless integration of more intermittent renewable generation?

 In the Caribbean, power generation has traditionally relied on reciprocating engines, often running on diesel or heavy fuel oil. While these engines are reliable, they have low inertia, meaning that even small fluctuations in load or generation can result in significant frequency variations on the grid, posing serious stability challenges.

The problem is exacerbated with natural gas reciprocating engines, which typically exhibit slow response times. If one unit trips, the remaining engines are often unable to ramp up quickly enough to stabilize frequency, leading to potential grid instability. This slow reaction time is a considerable drawback when integrating renewable energy sources like solar and wind, which are inherently intermittent and can cause rapid shifts in power supply.

In contrast, GE Vernova’s aeroderivative turbines—such as the TM2500 and LM2500—offer high inertia and rapid response capabilities. The dual-shaft design of these turbines allows the power-generating shaft to respond quickly and independently to fluctuations in grid frequency. When a frequency dip occurs, these turbines can swiftly ramp up their output, helping to stabilize the grid in real-time.

For instance, the LM2500 has a ramp rate that rivals much larger turbines, making it well-suited for balancing the variability introduced by renewables. This responsiveness ensures stable and reliable power even as renewable penetration increases. Beyond operational advantages, transitioning from traditional reciprocating engines to cleaner-burning natural gas turbines significantly reduces emissions, including NOx, particulate matter, and sulfur. This results in improved air quality and supports broader sustainability goals.

An illustrative case is the Bahamas, where moving from reciprocating engines to the TM2500 not only improved frequency stability, allowing for the use of more renewables, but also led to a dramatic reduction in visible emissions. The plant manager in the Bahamas noted that, upon starting the TM2500, there was no noticeable smoke—a striking contrast to the black plumes typically emitted by older reciprocating engines.

In summary, GE Vernova’s mobile power technology provides a dual benefit: It offers the grid stability necessary to support increased renewable integration while simultaneously delivering a more sustainable energy solution for island power systems.

TURBO: Beyond the Caribbean, are you seeing an uptick in mobile power? If so, what are your customers' concerns?

 Yes, there is a notable increase in demand for mobile power solutions beyond the Caribbean, driven by the rapid expansion of data centers, the broader transition to renewable energy, and the need for emergency power after natural disasters. In all these scenarios, mobile power offers a critical bridge delivering fast, flexible, and reliable energy when and where it’s needed most.

Customers consistently tell us their top priority is speed. Whether it’s energizing a new data center, supporting grid stability, or responding to a natural disaster, they need power solutions that can be deployed in days, not months. Flexibility is equally vital. The ability to redeploy or repurpose mobile units as needs evolve offers tremendous long-term value and resilience. The Ecuador experience is a powerful example showcasing speed and adaptability of these assets over time.

Sustainability is also top of mind. As access to lower-carbon fuels like LNG and liquid ethane expands, mobile power is becoming a more environmentally viable part of the energy transition. At GE Vernova, we’re helping customers navigate this shift with modular, fuel-flexible designs and the engineering expertise to integrate seamlessly with local infrastructure.

There’s a real sense of optimism in this space. Mobile power is no longer just a short-term solution; it is a strategic enabler for countries and companies looking to build energy systems that are faster, cleaner, and more resilient for the future.

Midhat Mirabi of GE Vernova says mobile power stabilizes the grid to support renewable integration and delivers a sustainable energy solution for island power systems.

GE Vernova Says Flexibility, Speed, and Reliability are Mobile Power’s Superpower

Ansaldo Energia and MVM Tisza Erőmű signed a contract to supply and maintain two gas turbines, two steam turbines, and two associated generators fo

a combined-cycle gas turbine (CCGT) power plant at the Tiszaújváros site in eastern Hungary. Calik Holding will execute turnkey planning, procurement, and construction while Ansaldo Energia manufactures and maintains its gas turbines under a long-term service agreement.

“The construction of the new power plant is of historic importance, as no new baseload power plant has been built in Hungary in the past one and a half decades,” said Csaba Lantos, Hungarian Minister of Energy. “It is also a crucial step for domestic energy production, as it contributes to strengthening energy independence, improving supply security, and achieving our climate goals. The new facility will balance renewable electricity production, thereby supporting the successful energy transition.”

Once commercial operation starts, the 1,000-MW CCGT power plant will use its two-block construction to generate 7,500 GWh of electricity per year for Hungary’s power grid. In addition, the Tiszaújváros site offers current electricity grid connections, a cooling water system, and local natural gas access, making the MVM facility Hungary’s largest and most efficient plant to date. Ansaldo Energia gas turbine technology is hydrogen-suitable and operates with reliability, high efficiency, and operational flexibility.

“The Tisza CCGT project marks a new era in Eastern Hungary's energy production,” said Károly Mátrai, CEO of the MVM Group. “A modern, flexible generation capacity will be established in place of a previously decommissioned traditional power plant, capable of adapting to increased consumer demand and supporting the integration of planned weather-dependent renewables into the grid. Thanks to the favorable infrastructure and geographical conditions, the investment not only strengthens grid stability but also gives new impetus to the local economy and employment.”

This contract follows Ansaldo Energia’s most recent turbine delivery in February, in which the company agreed to provide a hydrotreated vegetable oil (HVO)-fueled turbine for Ireland’s 

, a 300-MW facility set to run entirely on sustainable biofuel. The AE94.3A turbine will be paired with a generator to deliver fossil-free power using HVO, a diesel alternative made from waste feedstocks.

The simple-cycle Tarbert Power Station will support and contribute to Ireland’s electricity supply, securing electrical power and providing critical electricity to the supply system during peak demand. Also, the plant will Ireland’s expanding renewable generation capacity. SSE Thermal’s project aligns with the European Union’s sustainability standards as Ireland moves toward cleaner energy solutions—HVO is lower carbon than traditional fossil fuels.

In early October 2024, Ansaldo Energia announced the commercial operation of 

, its second project within the German TSO strategic grid reserve initiative. Marbach is a 300-MW simple-cycle thermoelectric plant equipped with Ansaldo’s AE94.3A gas turbine and generator. This equipment combination can generate electricity for over 200,000 homes, boosting Germany’s energy security.

The Marbach plant can operate in gas-shortage situations by using oil and eventually green, decarbonized liquid fuels such as HVO with NOx emissions below 50 mg/Nm

. Ansaldo’s AE94.3A gas turbine delivers high flexibility for the plant, with a ramp rate of 50 MW/min and reaching full load in 26 minutes. The company’s gas turbine fleet is capable of mix-combustion with hydrogen, with the AE94.3A turbine reaching 40% mix.

The planned combined-cycle, gas turbine-equipped power plant is expected to be Hungary’s largest and most efficient upon completion, bolstering domestic energy production.

Carlos Tello

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