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The Power Generation section is a comprehensive resource for clinical news and expert insights on Power Generation. Read more at Turbomachinery Magazine.

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185.5 MW / 371 MWh battery storage in Ireland

Mitsubishi Battery Project

GE LM2500+ Delivery

GE FPL Project

Optimized staging to minimize axial load 

Elliott Cryogenic Expander

Mitsubishi Power, Georgia Power, EPRI partnership

Largest Hydrogen Fuel Blending Plant 

U.S. LNG Explosion Adds Pressure to European Energy Supply

ORC partnership 

Several more Capstone deals

Fossil Fuel Fighting Talk 

Grid of the Future

Saudi deal for GE 

 Microturbine order details 

GE 9HA powered by LNG 

Ansaldo executive appointments 

Turbomachinery International tours the Tampa Big Bend power station in Tampa Bay, a coal-based power plant. 

Turbo Tour: Tampa Big Bend Power Station

Ansaldo nuclear progress

Mitsubishi Power storage project 

Dealing with cybersecurity vulnerabilities

Design and Engineering Software

B&K Vibro upgrades Setpoint 

Geothermal partnership 

Editor Series Webinar

Hydrogen-burning power plant 

Microturbine rental 

Recent Capstone news

Strong Aeroderivative Market, Weak Large Frame 

GE Announces Multiple Plant Openings

Siemens Energy electrolyzers 

Siemens H-class contract

Hydrogen production plant 

In part II of the TuboTime episode on designing turbomachines, the Myth Busters, Klaus Brun and Rainer Kurz, discuss the accuracy of these design tools, which benchmark testing is still required, and current state-of-the-art tools.

How accurate are these tools? Are the software limitations a part of the software, or are they human input issues?

 It depends on the software, right? There are situations where you need to be fairly accurate. Most finite element analysis (FEA) and computational fluid dynamics (CFD) are reasonably accurate, depending on the input of your boundary conditions. You really need to consider what you're trying to accomplish. Structural FEA is more advanced than CFD. Additionally, the equations being solved are fundamentally more linear, and therefore, the expected results tend to be more precise. You can generally expect to be within a couple of percent. In contrast, with CFD, the equations, as Rainer mentioned earlier, the Navier-Stokes equations, are highly complex and nonlinear partial differential equations. These equations are difficult to solve, and you can end up with very inaccurate results because many approximations are made, especially regarding turbulence modeling and boundary layers. The fidelity of the model is essential since you can't delve down to a molecular level; there's a limit to the size at which you can operate before you must make turbulence assumptions and consider steady state versus transient conditions. There are numerous opportunities for error here, and those are some of the significant ones.

 The issue is fundamentally this: What problem are you trying to solve? If you ask a designer to create a new compressor stage that aligns with the experience level of that company's database, you can likely determine things like efficiency or head-making capability, particularly in terms of aerodynamics, probably within a few percent without ever testing it. However, if you are dealing with something for which there is no reference data—essentially operating in uncharted waters and relying solely on your code—the accuracy is significantly and dramatically lower than that.

Podcasts

How accurate are advanced computational tools like CFD and FEA? Find out in part II of designing turbomachines with the Myth Busters.

TurboTime Podcast: Designing Turbomachines - Part II

In this episode of the TurboTime podcast, Myth Busters Klaus Brun and Rainer Kurz discuss the design of turbomachines. They describe the typical design process for a turbomachine, outline the required engineering tools, and explain each analytical tool's function: finite element analysis, computational fluid dynamics (CFD), and rotor and blade dynamics. They also discuss how compressors, pumps, and turbomachines were designed before these advanced computational tools existed.

TURBO: Can you describe the typical design process of a turbomachine and what engineering tools are required?

 You begin with what's known as a 1D analysis, then move to a 2D analysis, also called a blade passage flow analysis. After that, you proceed to 3D and conduct some testing before refining your geometry. In essence, that's the aerodynamics part, right? However, there’s an initial step that is often overlooked, which is your own experience. You start your design based on your experience and your existing machinery portfolio. If you’re a turbomachinery manufacturer with 50, 60, or 70 years in the field, you’ve likely worked on various types of machines. Therefore, before designing a new machine, impeller, or expander, you review your existing portfolio; that's usually your starting point. You examine what's closest to your needs within that portfolio to determine if you can build upon it or if you need to start from scratch. Besides the aerodynamic design process, there's also a review of structures and dynamics that runs parallel to your aerodynamic process. You perform aerodynamic design followed by structural checks. Essentially, you assess the solids and dynamics to ensure there’s no risk of failure due to vibration. You conduct these evaluations throughout to avoid potential failures. These are generally well-known considerations. Additionally, a third aspect that often gets overlooked is manufacturability. It’s crucial to ensure that what you're designing can actually be manufactured, as it wouldn’t make sense to design an impeller or a machine that ultimately cannot be produced due to a lack of available technology or machinery. This consideration relates closely to materials, so manufacturability and materials fall into the same category, requiring a review of your materials, coatings, etc., throughout the design process to ensure that your design is feasible for production.

 I’d also like to point out that, as engineers, we don't design these machines out of thin air. There’s usually a use case, a customer, or a market assessment that indicates we need something that fits specific requirements. This could be a gas turbine that produces 20,000 horsepower or a compressor that can deliver more throughput than what my competitors can achieve within a given casing size, and so on. Then, we enter a process where engineering is asked, "Hey, can you guys do that?” Of course, someone also inevitably asks if we can achieve that at a cost that makes the project feasible. Yes, Klaus is absolutely right; this essentially defines the playground we work within. From there, we move from what could be considered a rough draft, using our experience, to increasingly refined concepts. Ultimately, you'll end up with some CFD simulations, and after building the first machine or prototype, there will be some testing to follow.

Do engineers overrely on computational tools? The Myth Busters deep dive into engineering tools, such as CFD and FEA, used to design turbomachines. 

TurboTime Podcast: The Turbomachinery Design Process - Part I

In this episode of the TurboTime podcast, Myth Busters Klaus Burn of Ebara Elliott Energy and Rainer Kurz of RKSBenergy LLC dive into electrification: what it is and debunk the myth that it and machines—such as hermetically sealed compressors and high-speed electric motor drives—hydrogen blending and others are decarbonized.

TURBO: Can you break down the assertion that that machinery electrification and electric-motor drives are a decarbonization myth?

 There are a lot of decarbonization myths that don’t just have to do with electrification and electric motors and hermetically sealed drives and high-speed motors, but they also have to do with hydrogen blending, unburned hydrocarbons and gas turbines, and other types of emissions that are part of the sustainable energy economy. What we set to do, however, is talk about electrification, which is basically when you take a turbomachine, a compressor or pump, and instead of running it with a driver—e.g., a gas or steam turbine, which has been done traditionally at a lot of compressor stations, pipelines, or in refineries, ethylene plants, or other places—you actually replace them with an electric motor. And, obviously, an electric motor does not have any emissions directly; it just shifts the responsibility of the carbon production from where you utilize the electric motor to where the electricity comes from. And the last time I checked, at least in most of the industrialized nations such as North America, 60% of all fossil electricity comes from fossil fuels, a mix of natural gas and coal. China actually has more—I think 70% of the electricity comes from fossil fuels, mostly coal, which is very dirty. Europe is not quite as bad. They now have about 40% alternative energies, but still a substantial part. So, you're really just shifting the carbon emission from one place to another, sometimes in a very, very inefficient way.

 In a way, this discussion is always about where you draw the emissions boundaries. Klaus is right: As soon as you can shift your emissions outside your boundaries, you can claim you are carbon-neutral, whereas, in reality, you just made somebody else deal with your carbon emissions. There are quite a few studies that address that one way or another and very clearly show if you make electricity while creating CO

 or other emissions, you may create more emissions with an electric driver than with a driver that’s driven by fossil-fueled engines.

Klaus Brun and Rainer Kurz break down the myth that electrification and electric-motor drives are decarbonized. 

TurboTime Podcast: Debunking Machinery Decarbonization Myths

In this interview with Scott DeNeale, a Water Resources Engineer at Oak Ridge National Laboratory, we discuss the lab’s current research projects in hydropower and trends such as low-head and modular designs and metal additive manufacturing to manufacture Francis turbines. The lab is working on a lot of exciting work, and even though hydropower has been around for 150 years, DeNeale said there is a lot of opportunity to complement new generation with environmental compatibility.

An interesting fact is that only 3% of the more than 90,000 damns in the United States use hydropower. Why? Listen to find out!

TURBO: Can you tell us a little about Oak Ridge National Lab?

 Oak Ridge National Laboratory is the largest multi-program science and technology laboratory in the United States. It's managed by UT Battelle but is owned by the U.S. Department of Energy. As part of my research, I do a lot of work for hydropower. The research and development that I do touch on a lot of different things. We look at grid integration, markets, reliability, performance, hydrology and hydraulics, water management, biodiversity and ecosystem science. We look at technological advancement as well.

TURBO: What recent advancements have you seen in turbomachinery used in hydropower technology and pumped storage hydropower technology?

 Conventional hydropower—what we would speak to is the age of the big dams is over, so a lot of what we're looking at is retrofitting existing dams, replacing units, or adding new units to existing dams. And there's an area looking at canals and conduits as well. So, some of the advancements that I've seen are really geared toward the existing infrastructure, which has largely low-head or low-pressure potential. It’s a little bit different design that is used to capture that design point. Another area is modular technologies and standard technologies. Conventionally, a lot of turbines are custom-built, so the ability to have a standard design that could be plug-and-play has been of interest. We've had some research over the past 10 years related to that, working with industry on advancing their concepts as well. 

For pumped storage … I would refer you to a report from some of my friends at Argonne National Laboratory. They have done some great documentation of innovations—a lot of it's conceptual for pump storage but some cool innovations there. However, there has been no new pump storage since 2012. And, even with that, that was a very small project. So, since the mid-nineties, there really hasn’t been much of anything in terms of new pump storage, but there is a great demand for it.

Scott DeNeale of Oak Ridge National Lab shares trends in hydropower—from modular designs to additive-manufactured Francis turbines. 

TurboTime Podcast: Modular and Low-Head Designs are Trending in Hydropower 

In this episode of the TurboTime Podcast, Myth Busters Klaus Burn of Ebara Elliott Energy, and Rainer Kurz of RKSBenergy LLC, discuss root-cause analysis (RCA), including what it is, the philosophy and methodologies behind it, what actions should and should not be taken, and more.

Brun said: “RCA, some folks call it root-cause failure analysis, looks at something that failed: Your machine had a catastrophic failure, or you’re missing performance by a percent or two—something is not as you would expect in a compressor or gas or steam turbine, and you want to figure out what it is. So, you perform an RCA based on certain symptoms. In most cases, RCA starts with a review of the machine’s operation that may have preceded the failure and in some cases a metallurgical investigation, which is one of the best indicators as to what failed. It can indicate it was high-cycle fatigue, sudden overload, corrosion or erosion, for example. Then you figure out what excitation may have caused the high-cycle fatigue or what in your process gas may have caused corrosion or erosion.”

Kurz said: “In a way, this is a bit like a detective story. You find something failed, aka the dead body, and then you gather evidence. One of the key things in root-cause failure analysis is that you not only gather evidence, but you also document it. One of the key problems when these reports are written is you have a failure in 2015, for example, and you conduct an RCA, and the next similar failure isn’t for another 10 years. (These events don’t happen that often.) And if you haven't documented what you did for the first one, you can’t use it as a starting point.”

Klaus Brun and Rainer Kurz discuss root-cause analysis—what it is, its methodologies, and why it’s so important to managing turbomachines.

TurboTime Podcast: Root Cause Analysis with the Myth Busters 

During this episode of the TurboTime Podcast, Klaus Brun and Rainer Kurz discuss how hydrogen is transported and its use as an energy carrier. They then discuss how ammonia is produced, its advantages and limitations, and for what industries it’s a suitable solution.

“We’ve previously talked about hydrogen in some of our Myth Buster podcasts and how it’s relevant to a decarbonized energy economy as an energy carrier. Unfortunately, hydrogen itself has a lot of nasty characteristics: it's hard to compress, highly flammable, as a gas it’s not easy to deal with, etc. From a transportation and storage perspective, it leaks, has many safety issues, causes hydrogen embrittlement, etc., making it difficult to transport.”

“Making ammonia is nothing new. We know how to how the process works, but it is an energy-intensive process. But ammonia is a very toxic gas. It causes skin burns rapidly if you touch it in liquid form. In vapor form, even at less than 100 PPMs, it’s very irritating, so it creates a lot of issues from the handling perspective.”

In this episode of the TurboTime podcast, Myth Buster Klaus Brun and Rainer Kurz discuss ammonia. 

TurboTime Podcast: Ammonia with the Myth Busters

This episode of the TurboTime podcast features an onsite interview from our Turbo Tour of EthosEnergy’s Light Gas Turbine and Performance Center Facility in Houston. Assistant Editor James Cook talks with Daniel Tegtmeier, Director of EthosEnergy's Performance Center, about remote monitoring and operations, the changing energy landscape, and the benefits of remote start/stop and virtual capabilities.

Q: How does remote monitoring keep simple-cycle assets viable in a market focused on renewable energy?

 If you think about a machine built 20+ years ago and its efficiency, it still has a place in the market when competing with renewables. It’s not like it used to be though—these units used to run wide-open, 24/7. They’re now intermittent assets competing with renewables and zero-cost fuels, but once the wind stops blowing and the sun stops shining, that load is gone.

These are simple-cycle configurations, so they can come online quickly and be at 100 - 120 MW in less than an hour. So, you’re going to staff a facility 8,000 hours per year in case they call you up? That’s part of what we do and the justification for remote operations—you need the intermittent load from simple-cycle assets in rapid fashion, but you can’t afford to staff these places full-time.

Q: In addition to that justification, are there any safety improvements delivered through remote start/stop and control capabilities?

 Economics seems to drive most decision processes behind whether you’re remotely operating a facility or not; however, there’s a huge safety aspect. You don’t need people there 24 hours a day around equipment with a lot of pent-up energy, so exposure levels drop dramatically. For the most part, these machines are designed so well and over-engineered from day one that they’re conducive to [remote monitoring].

In this episode of the TurboTime podcast, Daniel Tegtmeier, Director of EthosEnergy’s Performance Center, talks about remote operations and monitoring. 

TurboTime Podcast: Remote Monitoring with EthosEnergy

In part two of this episode of the TurboTime Podcast, Klaus Burn of Ebara Elliott Energy, and Rainer Kurz of RKSBenergy LLC, discuss surge and choke on a compressor map. They explain where they occur on the map, what happens to the compressor when they operate in these extremes, and about transient operation of a compressor.

Brun explained surge: “On the left side of the map you have surge, and on the right side is choke, overload, or stonewall. The most basic definition of surge is the compressor head cannot overcome the system-imposed pressure, i.e., pressure on the outside on the suction and discharge, and the compressor is not making enough head to overcome that pressure differential. So instead of the flow moving forward through the compressor, the flow suddenly turns around and goes backward through the machine until that pressure balances again, at which point the machine can overcome that head. Then it starts a process again. And that becomes a circular process—you get into these surge cycles, and it's a fairly complex thing.”

Kurz emphasizes that surge is an interaction between the compressor and the system around it, “meaning the compressor by itself doesn't surge,” he said. “If the system forces the compressor to make more pressure ratio than under whatever conditions the compressor is going to make, then the gas thus what it wanted to do in the first place, which is go from the high pressure to low pressure, meaning it goes backward through the compressor. The tricky part with that is on the compressor map, we show what the compressor does. So, the map by itself and that surge line on the map is essentially something you derive from the compressor performance.”

The Myth Busters, Klaus Brun and Rainer Kurz, talk about surge and choke on a compressor map. 

TurboTime Podcast: Part II: Surge and Choke with the Myth Busters 

In this two-part episode of the TurboTime Podcast, Klaus Burn of Ebara Elliott Energy, and Rainer Kurz of RKSBenergy LLC, discuss compressor maps. The duo explains what compressor maps are, what they are useful for, how they fit into the process, and where head, flow, and efficiency islands fit in.

“In its most basic form, a compressor map is a graphical representation of how a centrifugal compressor behaves,” Brun said. “It's somewhat of an oversimplification because more factors play into it; but overall, it gives an accurate representation of what a compressor does within the system that it operates. A standard compressor map has an X and Y axis. The Y axis has something called head—isentropic or polytropic head. Sometimes you also see pressure ratio or a discharge pressure or a fixed section pressure. On the X axis is flow, and most of the time it’s volumetric flow. Sometimes you see mass flow, but that's not very common. Compressor maps also have a surge line on the left and on the right side of the map you have a choke or stonewall area. And finally, you have efficiency islands, and they correspond to the efficiency of the compressor. Not all compressor maps show them.”

Kurz further described efficiency islands: “Efficiency islands refer to the fact that these maps are three-dimensional, but we can only put them in two dimensions on paper. The three axes you want to display are head, flow, and efficiency. You use the efficiency lines in a very similar way to elevation lines. Also, the coordinates of the map that are directly affected by the compressor aerodynamics are head and flow. You can translate head into pressures or pressure ratios, and you can translate actual flow into mass flow, but ultimately what happens aerodynamically in the compressor is described by head and actual flow.”

The Myth Busters, Klaus Brun and Rainer Kurz, talk about compressor maps—what they are, how they are generated, and what they are useful for. 



TurboTime Podcast: Part I: Compressor Maps with the Myth Busters 

In this episode of the TurboTime podcast, Klaus Brun and Rainer Kurz talk about turbine degradation. They define terms such as fouling, corrosion, erosion, and rubbing and dig a little bit into what causes degradation, how it can be measured and minimized, and the difference between recoverable and non-recoverable degradation.

Burn explained: “A gas turbine system consists of a compressor, combustor, and one or several turbines, so degradation at its highest level is simply measured by what power output and efficiency to expect under certain operating conditions from a new machine and how much less power and less efficiency do you get after that machine has been running for thousands or tens of thousands of hours. The primary measurement is really on a macro level.”

During this episode, the Myth Busters break down the many terms associated with degradation, what components degrade, how it can be measured and minimized, and more. 

TurboTime Podcast: Turbomachine Degradation with the Myth Busters

The EAGLES-300 is a lead-cooled fast neutron reactor with a targeted global commercialization date of 2039.

Newly Established Eagles Consortium led by Ansaldo Nucleare to Develop Lead-Cooled SMR

NextDecade and Bechtel Energy finalized two lump-sum contracts totaling over $9 billion for the construction of Trains 4 and 5 at the Rio Grande LNG facility. 	

NextDecade Finalizes, Executes EPC Contracts for Trains 4, 5 at Rio Grande LNG Facility

Giuseppe Tilocca of ETN Global shares how the industry is responding to supply chain constraints, shifting policy conditions, and a growing need for dispatchable power.

ETN Global Sheds Light on Gas Turbines, Supply Chain, Skill Gap Challenges, and Modular Power 

Voith and HeiTech will modernize the Temengor, Bersia, and Kenering hydropower plants to boost operational lifespan and increase annual output. 

Voith Modernizes Three Hydropower Stations in Malaysia

GE Vernova will provide advanced grid technology and software to boost electricity transmission at the new centers in Embakasi and Suswa.

GE Vernova-L&T Consortium Builds Advanced National System Control Center in Kenya

Welcome to the ninth edition of the Turbomachinery News Network. I’m James Cook, assistant editor at 

The Turbomachinery News Network, for the week of May 5, 2025, covers news from GE Vernova Hitachi/GE Vernova, Ansaldo Energia, EthosEnergy, and Baker Hughes.

GE Hitachi Builds SMR, GE Vernova Invests in Saudi Arabia, Ansaldo Forms Nuclitalia, EthosEnergy Signs O&M Contract, Baker Hughes Unveils Flame Tracker

The Province of Ontario and Ontario Power Generation approved the construction phase for GE Vernova Hitachi Nuclear Energy’s 

 at OPG’s Darlington site. Completion is expected by 2030, with three additional SMRs planned for future installation at this location. GE Vernova also announced an up to 

 in Saudi Arabia’s energy transition, partnering with Saudi Electricity Co., ACWA Power, Aramco, and Principal Buyer.

Ansaldo Energia, Enel, and Leonardo founded 

 to study advanced nuclear technologies and market opportunities in Italy’s emerging nuclear industry. The company evaluates mature, environmentally sustainable nuclear power designs for water-cooled small modular reactors. It will conduct technical-economic analyses and outline specific system requirements to select the best possible options and integrate nuclear within Italy.

 for the 850-MW Maisan combined-cycle power plant located near Basra, Iraq. EthosEnergy will oversee plant operations, conduct routine inspections, and perform regular and preventive maintenance on all plant equipment.

Baker Hughes launched an advanced flame-detection technology to prevent damage, hazards, or explosions within gas turbines: 

. It uses improved electronics to enable flame detection in low-light thresholds, so it detects flames accurately in less than 0.025 seconds. This includes low-light conditions like obscured sight tubes, condensation, fouled lenses, and other light-inhibiting factors.

Welcome to the eighth edition of the Turbomachinery News Network. I’m James Cook, assistant editor at 

The Turbomachinery News Network, for the week of May 5, 2025, covers news from Rotating Machinery Services, Rolls-Royce, Ansaldo Energia, and Bosowa Energy Group.

RMS Acquires Fusion, Rolls-Royce Builds MRO Facility, Ansaldo Energia Installs MXL3, Bosowa Energy Integrates Indonesian LNG

Rotating Machinery Services acquired Fusion

, a Houston-based grinding, manufacturing, and coating company that manufactures custom-machined turbomachinery components. This acquisition supports RMS’s overhaul and repair of steam turbines, expanders, compressors, and additional rotating machinery. It will manage operations in Houston, TX, under RMS’s broader U.S.-based repair network.

 are building an independent maintenance, repair, and overhaul facility at the Istanbul Airport, which is scheduled to open by year-end 2027. Once operational, Turkish Technic will perform MRO services for the Trent XWB-97, Trent XWB-84, and Trent 7000 aero engines used by the Airbus A350 and Airbus A330neo. The facility will handle approximately 200 shop visits annually.

Ansaldo Energia installed its MXL3 upgrade at 

 in France. The upgrade included a redesigned compressor with high-pressure-capable parts, an improved combustion chamber for Ansaldo’s GT26 gas turbine, H-class features to enhance performance in challenging conditions, and refined insulation.

 and BK LNG Solution are modernizing Indonesia’s energy infrastructure by transitioning diesel-powered plants on remote Indonesian islands to LNG-fired operation. The two signed an MoU that includes LNG supply chain integration, building floating storage units, natural gas-fired power generation, downstream energy applications, and small-scale LNG distribution with ISO tank containers.

Welcome to the seventh edition of the Turbomachinery News Network. I’m James Cook, assistant editor at 

The Turbomachinery News Network, for the week of April 28, 2025, covers news from GE Vernova, ExxonMobil, Ansaldo Energia, and Woodside Energy.

GE Vernova Upgrades AGP XPAND, Supplies Gas Turbines to Duke Energy, ExxonMobil Stores CO2, Ansaldo Energia Builds Plant, Woodside Energy Approves LNG Facility

GE Vernova launched an upgrade for its advanced gas path technology, the 

, designed to improve the power output and incremental efficiency of its 9E.03 gas turbine fleet. The first installation will occur at Taurus Energy’s 1,250-MW Bazyan Power Plant in Iraq. GE Vernova also agreed to deliver 11 7HA gas turbines and related equipment to 

 to accelerate the company’s unspecified power projects across six states.

ExxonMobil will transfer and permanently store up to 2 MTPA of CO

 near Houston, TX. From the cogeneration facility, the carbon will be transported through ExxonMobil’s CO

 pipeline system to support oil recovery applications and deliver a continuous supply of low-carbon electricity and steam along the U.S. Gulf Coast.

Ansaldo Energia signed a contract to design, develop, and construct a combined-cycle gas turbine (CCGT) power plant at the 

 in eastern Hungary. 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.

Woodside Energy submitted the final investment decision to develop its $17.5 billion 

, with first LNG scheduled for 2029. The facility will initially feature three LNG liquefaction trains with 16.5 MTPA total capacity. bp will be the Louisiana LNG project’s integrated 

. Louisiana LNG Gas Management will purchase up to 640 Bcf of natural gas from bp, with deliveries starting in 2029.

Welcome to the sixth edition of the Turbomachinery News Network. I’m James Cook, assistant editor at 

The Turbomachinery News Network, for the week of April 21, 2025, covers news from Capstone Green Energy, bp, Chevron U.S.A., and TMC Compressors.

Capstone Delivers Microturbines, bp Loads LNG Cargo, Chevron Kickstarts Ballymore, TMC Equips LNG Carriers

The City of Winona ordered two C65 integrated combined heat-and-power 

 and a remote monitoring controller from Vergent Power for its wastewater treatment plant. The new turbines, set to be commissioned by April 30, will replace an existing C65 model that operated for over 15 years and had more than 100,000 hours of runtime.

bp successfully loaded its first LNG cargo from the 

 Phase 1 project, located approximately 120 km offshore Mauritania and Senegal’s maritime border. The cargo, designated for export, was loaded onto bp’s floating LNG vessel 10 km offshore. This loading follows first gas flow from GTA in early 2025.

Chevron began producing oil and natural gas at the 

 in the Gulf of America. This subsea tieback is estimated to contain 150 million barrels of oil equivalent recoverable resources to be extracted over the project’s lifetime. The project is slated to produce up to 75,000 barrels of oil per day across three wells connected to the Blind Faith facility.

TMC Compressors is supplying marine-based 

 to Hanwha Ocean to construct 12 new-build LNG carriers. The company’s compressed air systems are designed specifically for offshore and maritime applications and enable the vessel’s crew to perform on-board maintenance while at sea easily.

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