Skip to main content

Just In

"Below the Surface: How Baker Hughes is Drilling the 24/7 Clean Energy Solution"

Below the Surface: How Baker Hughes is Drilling the 24/7 Clean Energy Solution By: Robert Buluma   The geothermal era has arrived — and   Baker Hughes is holding the drill. While much of the energy world remains fixated on LNG exports and offshore wind, a quieter revolution is taking place beneath our feet. Baker Hughes (BKR) , the Houston-based energy technology giant, has assembled what may be the most comprehensive geothermal partnership network in the industry — positioning itself as the go-to industrial executor for next-generation geothermal power. In 2026 alone, the company has locked in strategic collaborations spanning three continents, from the deserts of Saudi Arabia to the outback of Australia and the high-heat basins of the American West. The common thread? Baker Hughes is applying a century of oil and gas drilling expertise to unlock geothermal energy at industrial scale — and the data center boom is providing the perfect market catalyst. The Strategy: "G...

The 2025 U.S. Geothermal Market Report published by the National Laboratory of the Rockies & Geothermal Rising

The 2025 U.S. Geothermal Market Report published by the National Laboratory of the Rockies (NLR, formerly NREL) in collaboration with Geothermal Rising and supported by the U.S. Department of Energy's Geothermal Technologies Office (GTO), provides a comprehensive update on the geothermal sector since the 2021 report. 



Released in 2025 (with data through mid-2025), it expands coverage to include geothermal heat pumps (GHPs) for single-building and district applications, alongside power generation and direct use. The report highlights steady growth in installed capacity, accelerating investment in next-generation technologies like enhanced geothermal systems (EGS) and closed-loop geothermal (CLG), cost declines, policy support, and emerging opportunities driven by demand for reliable, 24/7 clean energy.

Geothermal Power Generation: Steady Growth and Momentum

U.S. geothermal power has seen consistent expansion, with nameplate installed capacity reaching 3,969 megawatts-electric (MWe) as of 2024 an 8% increase from 3,673 MWe in 2020. This net gain includes 246 MWe of new plants, 132 MWe from expansions and additions, offset by 82 MWe in retirements. Net summer and winter capacities also rose, from 2.56 GWe and 2.96 GWe in 2019 to 2.69 GWe and 3.12 GWe in 2023.

Development remains concentrated in the western U.S., where high thermal gradients and known resource areas enable viability. California dominates with 53 of the nation's 99 plants and 2,868 MWe (72% of total capacity). Nevada follows with 32 plants and 892 MWe. Smaller contributions come from Oregon, Utah (four plants each), Hawaii and Alaska (two each), and Idaho and New Mexico (one each).

A surge in power purchase agreements (PPAs) signals strong future growth. Since 2021, 26 new PPAs represent over 1.64 GWe in commitments. California's 2021 procurement order drove at least 616 MWe in agreements, including imports of firm power from Nevada and Utah. Next-generation systems (EGS and CLG) comprise 60% of recent PPAs, totaling 984 MWe across states like California (439 MWe), Nevada, New Mexico, Texas, and undisclosed eastern locations. The first EGS PPA was signed in 2022 between Fervo Energy, Google (via NV Energy), and others for 3.5 MWe, with expansions following.

Projects under development increased from 54 to 64 since 2020. Ormat leads conventional hydrothermal with 37 projects, while Fervo (four), Sage Geosystems, and Eavor (two each) pioneer next-gen.

Technological progress is rapid. DOE's Frontier Observatory for Research in Geothermal Energy (FORGE) in Utah has drilled seven wells, slashing on-bottom drilling hours from 310 in 2020 to 110 in 2023. Fervo's 2023 Nevada pilot marked the first commercial-scale EGS, with their Cape Station project in Utah targeting a 500-MWe scale (100 MWe Phase 1 by 2026, 400 MWe Phase 2 by 2028). Eavor achieved a U.S. first in 2022 with a deep multilateral CLG well in New Mexico reaching 18,000 ft and 250°C.

Costs reflect advancement: EGS levelized cost of energy (LCOE) is declining sharply per the 2024 Annual Technology Baseline (ATB) Moderate Scenario, projected to match 2024 conventional flash levels (~$63–74/MWh) within a decade. Conventional hydrothermal LCOE remains stable ($63–74/MWh flash, $90–110/MWh binary), competitive with recent PPAs.

Investment in next-gen geothermal exceeds $1.5 billion since 2021, with EGS firms raising $990 million and CLG $604 million. Fervo secured $642 million equity plus $331 million debt; Eavor raised $387 million equity and $142 million loans. Resource potential is vast: average EGS at 1–7 km depth estimated at 27–57 terawatt-electric (TWe), including 4.35 TWe on public lands (BLM/USFS). Economically developable portions offer significant upside.

Policy support is robust: 29 states provide incentives (grants, rebates, tax credits) for geothermal power; 42 states have regulatory frameworks (e.g., standards, net metering). BLM lands host 51 plants generating 11.1 TWh in 2022.

Geothermal Heating and Cooling: Nationwide Adoption and Grid Benefits
GHPs offer reliable, efficient heating/cooling across all U.S. climates. Extrapolations from EIA's RECS and CBECS estimate 1.27 million residential units and 27,300 commercial buildings with installations. Residential hotspots include Florida, Tennessee, and North Carolina.

Incentives abound: 34 states and D.C. offer GHP support; federal Inflation Reduction Act (IRA) provided a 30% residential tax credit (through 2025) and 6% base commercial credit, with leasing now permitted.

Mass GHP deployment could save up to $1 trillion in grid infrastructure by 2050 (ORNL estimates), reducing generation needs by 585–937 TWh, capacity by 173–410 GW, and transmission by 3.3–65.3 TW-miles.

Thermal Energy Networks (TENs)—fifth-generation district systems with shared ambient loops—are rising. States like California, Colorado, Massachusetts, and New York advance regulations. Eversource's 2024 Framingham, MA pilot connects 36 buildings via borehole fields, modeling utility-led growth.

Geothermal direct use (GDU) includes ~500 installations: resorts/pools (59%, 281 sites), space heating (77), aquaculture (47), greenhouses (37), district heating (25), and others. California leads with 89.

Emerging Opportunities: Resilience, Data Centers, and Innovation
Geothermal bolsters energy security: DoD funded 10+ projects (2023–2025) at bases like Fort Wainwright (AK) and Joint Base San Antonio (TX) for conventional and next-gen tech. Federal GHP projects (2001–2014) delivered cost savings.

Data centers, with load tripling and projected doubling/tripling by 2028, favor geothermal's firm power and thermal storage. PPAs include Meta (150 MWe with Sage, 150 MWe with XG5) and Google (115 MWe expansion with Fervo).

Superhot geothermal could boost well output 5–10x. DOE funds R&D for shallow resources.

Hybrids (e.g., Ormat's Tungsten Mountain), GeoTES (demos in California oil fields), and oil/gas co-production ($8.4 million DOE awards) enhance flexibility. Brine mineral extraction (e.g., 3,400 kilotons lithium at Salton Sea) addresses critical materials.

As of early 2026, momentum continues: Fervo's Cape Station Phase 1 targets grid delivery in October 2026, backed by recent financings ($462 million Series E in late 2025, prior tranches). The sector is poised for exponential growth, unlocking vast domestic potential for decarbonization, resilience, and energy independence.  


Source: NRel

Connect with us: LinkedInX

Comments

Hot Topics 🔥

Eavor Geretsried Geothermal Breakthrough: Inside the Closed-Loop Energy Revolution, Drilling Challenges, and Path to Scalable Clean Power

The Geothermal “Holy Grail” Just Got a Reality Check: Inside Eavor’s Geretsried Breakthrough By: Robert Buluma   May 22, 2026 It’s not every day a deep-tech energy company publishes a detailed technical report that openly documents what went wrong on its flagship project—and still comes out looking stronger. That’s exactly what Eavor Technologies did with its Geretsried geothermal project in Bavaria, Germany. The result is unusually transparent: part technical post-mortem, part validation of a technology many have doubted for years. And the core message is simple. They built it. It works. But it wasn’t smooth. The short version Eavor is trying to solve one of geothermal energy’s hardest problems: how to produce reliable heat and power anywhere, not just in rare volcanic hotspots. Their claim has always been bold: a closed-loop geothermal system that is scalable, dispatchable, low-carbon, and independent of natural reservoirs. Critics have long argued it wouldn’t survive...

GEN Electric Grid Impact Study RFP in Framingham Massachusetts Advances Utility Geothermal Networks

GEN Electric Grid Impact Study RFP Signals a Defining Moment for Geothermal Energy Networks in the United States By: Robert Buluma The United States geothermal sector is entering a new phase, one where geothermal systems are no longer being viewed only as sources of heating and cooling, but increasingly as strategic infrastructure capable of strengthening the electric grid itself. In one of the most important emerging developments in utility-scale thermal network deployment, the Home Energy Efficiency Team (HEET), in partnership with Eversource Gas, has officially launched a Request for Proposals (RFP) for a groundbreaking Electric Grid Impact Study focused on Geothermal Energy Networks (GENs), also referred to as Thermal Energy Networks (TENs). Backed by funding from the U.S. Department of Energy under grant “DE-EE0010662.0002 Home Energy Efficiency Team Utility-Managed Geothermal Pilot in Framingham, Massachusetts,” the initiative represents far more than a local energy pilot. It is...

Rodatherm Energy: The Refrigerant Gambit

By: Robert Buluma   Rodatherm Energy has done something no other geothermal startup has attempted at commercial scale: swapped water for refrigerant in a closed-loop system. The claim is 50% higher thermal efficiency than water-based binary cycles, achieved by circulating a proprietary phase-change fluid through a fully cased, pressurized wellbore. The company emerged from stealth in September 2025 with a $38 million Series A—the largest first venture raise in geothermal history. Lead investor Evok Innovations was joined by Toyota Ventures, TDK Ventures, and the Grantham Foundation. The engineering thesis is elegant. The execution risks are significant. This is an Alphaxioms examination of both. II. The Thermodynamic Distinction Every geothermal company you've covered moves heat using water or steam. Rodatherm moves heat using a fluid that boils and condenses inside the wellbore. In a conventional closed-loop water system (Eavor's model), water circulates as a single-phase liq...

Eavor steps back from operator role in the Geretsried geothermal project

Eavor at the Crossroads: What Geretsried Really Tells Us About the Future of Closed-Loop Geothermal By Alphaxioms Geothermal Insights | May 13, 2026 For years, Eavor Technologies was the geothermal sector's most talked-about enigma. The company raised hundreds of millions of dollars, attracted backing from heavyweights including BP , Chevron , Helmerich & Payne , and Temasek , and made bold promises about a proprietary closed-loop technology that would quietly revolutionise how humanity extracts heat from the earth. But it rarely said much in public. The secrecy was, to many observers in the geothermal community, a feature rather than a bug — protecting intellectual property, managing competitive intelligence, buying time. Now, Eavor is talking. And what it is saying is worth listening to very carefully. In an exclusive interview published on May 13, 2026, by GeoExpro editor Henk Kombrink, Eavor's new president and CEO Mark Fitzgerald — who took the role in October 2025 ...

China's Supercritical CO₂ Geothermal Heating Breakthrough: What It Means for the World

China’s Supercritical CO₂ Geothermal Heating Breakthrough: What It Means for the World By Robert Buluma | Alphaxioms Geothermal Insights | May 19, 2026 Introduction: A Quiet Breakthrough in Zhengzhou On May 19, 2026, a major but underreported milestone emerged from Zhengzhou in China’s Henan Province. China Huaneng Group , one of the country’s largest state-owned energy companies, commissioned what is believed to be the world’s first commercial geothermal heating system using supercritical carbon dioxide (CO₂) as its working fluid instead of water. The announcement did not generate major global headlines, yet its implications are significant. This is not just another geothermal pilot project. It represents a working demonstration of a fundamentally different geothermal architecture that could reshape how heat is extracted from the Earth, especially in urban district heating systems. The Zhengzhou project signals a possible shift in geothermal engineering thinking—from water-based sys...

Zanskar Advances Arizona Geothermal Project as Arizona Oil and Gas Conservation Commission Approves New Wells

Zanskar’s geothermal ambitions in Arizona gain momentum after the Arizona Oil and Gas Conservation Commission approved new exploration wells tied to the landmark MILESHIGH project near the Morenci copper mine. By:  Robert Buluma Arizona’s Geothermal Ambitions Surge Forward as New Wells Approved for Landmark Copper Mine Project Arizona is no longer sitting quietly on the sidelines of America’s geothermal revolution. In a development that could reshape both the state’s mining industry and its clean energy future, regulators have approved new geothermal exploration wells tied to the ambitious MILESHIGH geothermal project in Greenlee County. The approval signals far more than another drilling authorization—it represents a decisive step toward integrating geothermal energy into one of North America’s largest copper mining operations while potentially opening a new chapter for geothermal development across the American Southwest. The newly approved wells are associated with a groundbre...

XGS, Baker Hughes, and Meta Ignite New Mexico’s 150MW Geothermal AI Power Revolution

XGS and Baker Hughes Push Geothermal Into the AI Era With Massive 150MW Meta-Linked Project in New Mexico The geothermal industry has officially entered a new phase — one where artificial intelligence, hyperscale data centers, and next-generation geothermal technologies are beginning to converge into a single industrial ecosystem. In one of the most significant geothermal-energy announcements of 2026, XGS Energy has partnered with Baker Hughes to accelerate development of a massive 150MW geothermal power project in New Mexico tied to the growing energy demands of Meta data center operations. The project is not merely another renewable energy development. It represents a major industrial test of whether advanced geothermal systems can reliably power the exploding AI infrastructure economy that is rapidly transforming electricity demand across the United States and the world. According to reports, the geothermal facility will provide electricity into the grid operated by Public S...

Fervo Energy Is Sitting on a Lithium Goldmine: Why DLE + IPO Is the Billion-Dollar Move They Haven't Made Yet

Fervo Energy has raised $1.5B, slashed drilling costs, and is eyeing an IPO. But ignoring DLE lithium co-production leaves billions on the table. Here's why By Alphaxioms | Energy & Critical Minerals Analysis Image: Fervo Energy’s Nasdaq debut marks a defining moment for geothermal energy. ⚡🌍 Fervo Energy has become the undisputed poster child of next-generation geothermal. With over $1.5 billion raised, drilling times slashed, and high-profile power deals with Google and California utilities, they've proven that enhanced geothermal systems (EGS) can work at scale  But Fervo is leaving money in the ground. Literally. Every day, Fervo pumps millions of gallons of hot, pressurized brine through deep underground fractures at Cape Station (Utah) and Project Red (Nevada). They extract the heat, generate clean electricity, and then reinject the fluid. Job done. Except that brine isn't just water. Across the Great Basin — where Fervo operates — geothermal brines carry d...

PhD Opportunity at Newcastle University: Subsurface Geoenergy Science and Geothermal Formation Alteration

Two fully funded PhD studentships at Newcastle University focus on uncertainty quantification in subsurface geoenergy and formation alteration during geothermal production. Deadline: 5 June 2026. The Science Beneath the Steam: Why Two PhD Studentships at Newcastle University Could Shape the Future of Geothermal Energy By Alphaxioms | Geothermal Intelligence & Energy Research Introduction: The Invisible Frontier The global energy transition is fought on many fronts — in boardrooms, on policy floors, in grid-scale engineering tenders, and in the quiet corridors of university research departments where the foundational science of tomorrow's energy systems is being built, one dissertation at a time. It is in these corridors that some of the most consequential decisions about our energy future are made, not by politicians or investors, but by researchers willing to dedicate years of their lives to questions that most of the world has not yet thought to ask. Two such questions have n...

The Retrofit Revolution: How GreenFire Energy Is Turning Abandoned Oil & Geothermal Wells Into Continuous Clean Power Without New Drilling

The Retrofit Revolution: How GreenFire Energy Is Unlocking Geothermal Power Without Drilling a Single New Well By: Robert Buluma   While much of the geothermal energy sector has been focused on breakthrough drilling techniques—deeper wells, hotter reservoirs, and complex engineered systems—a quieter revolution has been unfolding in the background. Instead of chasing entirely new subsurface frontiers, one company has chosen a radically simpler question: What if the answer was already in the ground? GreenFire Energy is advancing a retrofit-first geothermal strategy that targets one of the most overlooked opportunities in the global energy transition: existing wells that are underperforming, depleted, or completely abandoned. Rather than drilling new holes into the Earth, the company is reusing the infrastructure that already exists—turning stranded assets into continuous sources of clean, baseload electricity. This approach is not just technically elegant. It may also be one of ...