Skip to main content

Just In

COWI and Sinotech Advance Taiwan’s Super-Hot Geothermal Potential

COWI and Sinotech Team Up on Taiwan’s Super-Hot Geothermal Potential Taiwan’s geothermal story is moving from possibility to execution, and the COWI-Sinotech collaboration is a sign that the sector is entering a more serious phase of development. The partnership is focused on unlocking super-hot geothermal resources, which could improve project economics and expand the country’s clean-energy options. Introduction Geothermal has long been one of Taiwan’s most intriguing renewable resources because the island sits on active tectonic terrain with strong heat potential. What has held the sector back is not a lack of heat, but the difficulty of converting that heat into bankable projects at scale. The new collaboration between COWI and Sinotech points to a more technical, internationally connected approach to solving that problem. Why Taiwan Matters Taiwan has ambitious decarbonization goals, and geothermal fits neatly into the need for firm, low-carbon power. Unlike solar and wind, geother...

Mountain West Geothermal Consortium Launches Major U.S. Clean Energy Expansion Across Utah, Arizona, Colorado and New Mexico

Mountain West Geothermal Consortium: Utah, Arizona, Colorado, and New Mexico Unite to Accelerate America’s Geothermal Future


A New Western Energy Alliance Is Emerging

A major shift is quietly unfolding across the American West. In a move that could redefine the future of clean baseload power in the United States, the states of Utah, Arizona, Colorado, and New Mexico have joined forces to establish the Mountain West Geothermal Consortium — a regional alliance designed to accelerate geothermal energy development, streamline permitting, improve financing pathways, and unlock the enormous geothermal potential buried beneath the western United States.

The initiative arrives at a time when geothermal energy is experiencing one of the most dramatic revivals in modern energy history. Once overshadowed by solar and wind, geothermal is now re-emerging as one of the most strategically important renewable energy resources in the world. Unlike intermittent renewables, geothermal can generate electricity 24 hours a day, seven days a week, regardless of weather conditions. It provides stable, reliable, carbon-free baseload power — something increasingly valuable in an era of surging electricity demand driven by artificial intelligence, data centers, electrification, and industrial decarbonization.

The four-state coalition signals that the American West is preparing to become the epicenter of the next geothermal boom.


Why the Mountain West Matters

The Western United States possesses some of the richest geothermal resources on Earth. Beneath the deserts, mountain ranges, volcanic systems, and tectonic structures lies immense underground heat capable of powering millions of homes and industries.

According to estimates from the U.S. Department of Energy, the United States could potentially develop up to 300 gigawatts of geothermal energy capacity, with approximately 75% of that resource located in the western states. Yet despite this staggering potential, geothermal remains largely underdeveloped compared to solar, wind, oil, and natural gas.

Currently, Utah, Arizona, Colorado, and New Mexico collectively produce only around 100 megawatts of geothermal electricity. In energy terms, that is relatively small. However, the new consortium aims to dramatically scale this figure over the coming years by removing the barriers that have historically slowed geothermal development.

The Mountain West is particularly suited for geothermal expansion for several reasons:

  • Higher underground temperatures are found at shallower drilling depths.
  • The region contains vast expanses of federal and state-owned land.
  • Existing oil and gas expertise can be transferred into geothermal drilling.
  • Strong transmission infrastructure already exists in many energy corridors.
  • Political support for geothermal spans both major parties.

These advantages give the region a rare opportunity to become the center of a new American geothermal renaissance.


What Is the Mountain West Geothermal Consortium?

The Mountain West Geothermal Consortium is an interstate collaboration focused on accelerating geothermal deployment through coordinated policy, financing support, technical assistance, and industry collaboration.

The initiative is being supported by two Washington, D.C.-based nonprofits:

  • The Center for Public Enterprise
  • Constructive

These organizations specialize in economic development and energy systems modernization.

The consortium’s primary mission is to help participating states overcome the major challenges facing geothermal development, including:

  • Permitting delays
  • Financing difficulties
  • Utility procurement barriers
  • Infrastructure coordination
  • Geological data gaps
  • Regulatory uncertainty
  • Transmission planning
  • Market integration

Instead of each state independently trying to solve these challenges, the consortium creates a collaborative regional framework where knowledge, expertise, and policy innovations can be shared.

This is particularly important because geothermal projects are capital intensive and technically complex. Developers often face long lead times before drilling begins, and exploration risks can discourage private investment.

The consortium intends to reduce those risks.


Why Geothermal Is Suddenly Becoming Important Again

For decades, geothermal energy remained one of the most overlooked renewable resources in the United States. While countries like Iceland, Kenya, Indonesia, and the Philippines invested heavily in geothermal development, the U.S. geothermal sector grew relatively slowly despite enormous geological potential.

That is now changing rapidly.

Several factors are driving geothermal’s resurgence:

1. The AI and Data Center Power Boom

Artificial intelligence infrastructure and hyperscale data centers are dramatically increasing electricity demand across the United States. These facilities require uninterrupted power 24 hours a day.

Solar and wind alone cannot reliably provide continuous baseload electricity without massive battery storage systems.

Geothermal offers stable, constant power generation that perfectly complements AI-era energy needs.


2. Oil and Gas Technologies Are Transforming Geothermal

Advanced drilling technologies originally developed for shale oil and gas are now being adapted for geothermal systems.

Horizontal drilling, directional drilling, reservoir stimulation, and real-time subsurface imaging are making geothermal projects more efficient and economically viable.

Companies such as , Fervo Energy, and are helping redefine the geothermal landscape using technologies inherited from the oil and gas industry.


3. Geothermal Is Carbon-Free and Reliable

Unlike fossil fuels, geothermal energy produces extremely low emissions.

Unlike solar and wind, geothermal is not weather dependent.

This combination makes it uniquely attractive to policymakers trying to balance decarbonization with grid reliability.


4. Bipartisan Political Support

Geothermal has emerged as one of the few energy technologies receiving support across the political spectrum.

Progressives support geothermal because it is clean energy.

Conservatives support geothermal because it strengthens domestic energy production, enhances grid stability, creates jobs, and reduces dependence on foreign energy systems.

That rare bipartisan alignment is becoming one of geothermal’s greatest strategic advantages.


Utah: The Heart of America’s Geothermal Renaissance

Among the participating states, Utah has emerged as a particularly influential player in geothermal development.

The state hosts one of the most important geothermal research initiatives in the world: the project near Milford, Utah.

Utah FORGE is a large-scale geothermal demonstration site supported by the U.S. Department of Energy. The facility is pioneering enhanced geothermal systems (EGS), a technology that could unlock geothermal energy almost anywhere by artificially creating reservoirs in hot underground rock formations.

EGS is considered one of the most transformative developments in modern geothermal science.

Traditional geothermal systems require naturally occurring underground water and permeability. Enhanced geothermal systems, however, engineer those conditions artificially, vastly expanding where geothermal power can be developed.

This could turn geothermal from a niche energy source into a globally scalable industry.

Utah’s geology, energy expertise, and pro-development political climate have positioned it at the forefront of these advancements.

Utah Governor has strongly backed geothermal expansion as part of his broader Operation Gigawatt initiative aimed at ensuring long-term energy reliability and economic growth.


Colorado’s Strategic Role

Colorado’s participation adds another powerful dimension to the consortium.

The state already possesses extensive energy infrastructure, technical expertise, and renewable energy leadership. Colorado’s strong research institutions and engineering ecosystem could help accelerate geothermal innovation across the region.

Governor has emphasized geothermal’s ability to provide cleaner and more affordable energy while supporting regional collaboration.

Colorado’s involvement is particularly significant because the state has experience balancing environmental goals with industrial development. This policy experience could become essential as geothermal projects scale across the Mountain West.


Arizona’s Geothermal Opportunity

Arizona is often associated with solar energy due to its vast desert landscapes and intense sunlight. However, geothermal could become an equally important resource for the state.

Arizona faces rapidly growing electricity demand due to population growth, urban expansion, and increasing industrial activity. Reliable baseload power will become increasingly important for maintaining grid stability.

Governor has expressed support for scaling next-generation geothermal technologies through research partnerships and interstate cooperation.

Arizona’s geothermal potential remains relatively underexplored compared to neighboring states, meaning the consortium could help unlock major new investment opportunities there.


New Mexico’s Energy Evolution

New Mexico has long been associated with oil and gas production. However, the state is increasingly diversifying its energy portfolio.

Governor described geothermal as “the next chapter” in New Mexico’s energy future.

The state’s existing drilling expertise could prove invaluable to geothermal expansion. Workers and technologies from the oil and gas sector can transition into geothermal development, helping preserve jobs while supporting cleaner energy systems.

This crossover between hydrocarbons and geothermal is becoming one of the most important trends in global energy.


The Role of Zanskar and Private Developers

Private geothermal developers are expected to play a critical role in the consortium’s success.

One company already drawing major attention is .

Zanskar specializes in advanced geothermal exploration techniques using artificial intelligence, geophysical analysis, and modern subsurface mapping technologies to identify commercially viable geothermal reservoirs.

The company has described Utah as the center of a geothermal renaissance.

That statement reflects a broader reality: geothermal is increasingly moving from experimental status into mainstream energy development.

Venture capital investment in geothermal has surged in recent years, with investors recognizing the technology’s long-term strategic importance.


The Economic Promise of Geothermal

The consortium is not just about clean energy.

It is also about economic transformation.

Geothermal development could unlock:

  • Billions of dollars in infrastructure investment
  • Thousands of high-paying technical jobs
  • New manufacturing opportunities
  • Expanded drilling industries
  • Rural economic development
  • Increased grid resilience
  • Energy independence

Michael O’Connor, director of the Mountain West Geothermal Consortium, suggested that geothermal could eventually attract “hundreds of billions of dollars” of investment into the region.

That is not unrealistic.

If enhanced geothermal systems become commercially scalable, the economic implications could rival the shale revolution that transformed the U.S. oil and gas industry.


The Transfer of Oil and Gas Expertise

One of geothermal’s greatest advantages is that it can leverage decades of oil and gas expertise.

The geothermal industry requires:

  • Drilling rigs
  • Reservoir engineering
  • Geophysical surveys
  • Subsurface modeling
  • Completion technologies
  • Well stimulation
  • Directional drilling

These are all areas where the oil and gas sector already possesses enormous expertise.

As fossil fuel industries face long-term transition pressures, geothermal offers a pathway for energy workers and companies to redeploy their capabilities into low-carbon energy systems.

This overlap could significantly accelerate geothermal growth.


Geothermal and Grid Stability

The modern energy transition faces a major challenge: reliability.

Solar and wind are expanding rapidly, but their intermittency creates operational challenges for electrical grids.

Geothermal solves part of this problem by providing constant baseload power.

Unlike batteries, geothermal plants can operate continuously for decades.

This makes geothermal especially valuable for:

  • AI data centers
  • Semiconductor manufacturing
  • Industrial facilities
  • Urban electricity grids
  • Critical infrastructure
  • Military installations

As electricity demand grows, geothermal may become one of the most strategically important energy technologies in the United States.


The Permitting Challenge

Despite its enormous promise, geothermal development still faces major obstacles.

Permitting remains one of the biggest challenges.

Projects often involve multiple agencies, environmental reviews, land access negotiations, and utility approvals.

These processes can take years.

The Mountain West Geothermal Consortium aims to streamline those procedures by improving coordination among states and regulators.

Reducing permitting delays could dramatically improve investor confidence.


Financing the Future

Geothermal projects require large upfront investments, especially during exploration and drilling.

Unlike solar farms, geothermal developers must spend significant capital before confirming whether a reservoir is commercially viable.

That exploration risk has historically discouraged many investors.

The consortium hopes to address this by helping states design financing mechanisms, public-private partnerships, and investment programs that reduce risk and attract capital.

This could include:

  • Loan guarantees
  • Exploration insurance
  • State-backed financing tools
  • Utility procurement reforms
  • Infrastructure incentives

Such measures may become critical for scaling the industry.


Why Bipartisan Support Matters

America’s energy transition is often politically polarized.

Geothermal is different.

Republicans often support it because it:

  • Creates domestic energy jobs
  • Strengthens grid reliability
  • Utilizes drilling expertise
  • Enhances energy security

Democrats often support it because it:

  • Produces low-carbon electricity
  • Reduces emissions
  • Supports clean energy goals
  • Helps decarbonize industry

This bipartisan appeal makes geothermal unusually resilient politically.

That could allow geothermal projects to move faster than many other energy initiatives.


The Global Implications

The Mountain West Geothermal Consortium could influence geothermal development far beyond the United States.

Countries around the world are watching advances in enhanced geothermal systems closely.

If the American West successfully scales geothermal technologies, the implications could be global.

Regions previously considered unsuitable for geothermal development may suddenly become viable.

This could fundamentally reshape the future energy landscape.


A Turning Point for American Energy

The creation of the Mountain West Geothermal Consortium may eventually be viewed as a pivotal moment in U.S. energy history.

For decades, geothermal remained overshadowed by other renewables.

Now, rising electricity demand, advances in drilling technology, bipartisan political support, and growing concerns about grid reliability are pushing geothermal into the center of America’s energy conversation.

Utah, Arizona, Colorado, and New Mexico are positioning themselves at the forefront of that transformation.

Their collaboration reflects a growing recognition that geothermal is no longer a niche technology.

It is becoming a strategic energy asset.

And if the consortium succeeds, the Mountain West could emerge as the beating heart of America’s geothermal future — powering industries, supporting AI infrastructure, strengthening energy security, and accelerating the transition toward reliable carbon-free electricity for decades to come.


Source; Desert News

Connect with us: LinkedIn, X


Comments

Popular posts from this blog

Quaise Energy Raises $180 Million Series B to Advance Superhot Geothermal Power Plant

Quaise Energy Raises $180 Million as Superhot Geothermal Moves Closer to Commercial Reality Quaise Energy has taken a major step toward commercializing superhot geothermal power with the final close of its Series B financing, bringing in $180 million in equity capital and lifting total funding to $280 million. The round includes a $35 million investment from Nabors Industries and a strategic framework agreement that strengthens the companies’ collaboration around drilling operations, technology integration, and commercial development. The announcement matters because it is not just another clean-energy funding headline. It is a signal that superhot geothermal is starting to attract the kind of capital, industrial partnerships, and technical confidence that are usually needed before a frontier energy technology can move from laboratory promise to real-world deployment. A Big Capital Milestone The final close of the Series B gives Quaise a stronger financial base to advance Project Obs...

DMT Munich 3D Seismic Survey Unlocks Deep Geothermal Potential

DMT Launches Major 3D Seismic Survey in Greater Munich to Unlock Geothermal Potential DMT has begun one of the most ambitious geothermal exploration efforts in Europe: a large-scale 3D seismic survey across the Greater Munich area. The campaign is designed to create a detailed image of the deep subsurface and provide the geological foundation for future geothermal development in and around Munich. This matters because geothermal energy is only as strong as the quality of the subsurface data behind it. In a project like this, better information can reduce drilling risk, improve project planning, and help utilities and municipalities make smarter long-term investment decisions. Munich is already one of Germany’s most important geothermal regions, with an active district heating network and multiple operating boreholes. The new campaign aims to build on that base by identifying new opportunities and supporting the next stage of deep geothermal expansion. Why the Munich project matters The...

İpeks Jeotermal to Drill 10 Geothermal Wells for Greenhouse Heating in Afyonkarahisar

İpeks Jeotermal to Drill 10 New Geothermal Wells for Greenhouse Heating in Afyonkarahisar İpeks Jeotermal Enerji Tarım Sanayi ve Ticaret A.Ş. plans to drill 10 new geothermal production wells to increase the heating capacity of its greenhouse facility in Afyonkarahisar, Türkiye. The company also plans to add three reinjection wells as part of an investment valued at approximately 94.5 million Turkish lira. The project will be developed in the İsmail, Çakır and Sadıkbey village areas of Afyonkarahisar’s central district, within the company’s existing geothermal licence area, identified as IR:122 and ER:3193230. The planned expansion is expected to improve the reliability of geothermal heat supplies for the company’s greenhouse operations while supporting the more efficient and sustainable use of the region’s geothermal resources. Geothermal energy is increasingly being used in greenhouse agriculture because it can provide a stable source of heat throughout the year. Unlike solar and win...

The "Heat-as-a-Service" (HaaS) Business Model: Geothermal Without the CAPEX Nightmare

Heat-as-a-Service takes geothermal from a capital-intensive power project to a financeable, contract-based heat utility: instead of selling electrons, you sell stable, decarbonized heat under long-term contracts that match what industrial customers and investors actually want. Image: A thematic picture of a geothermal power plant By shifting risk and ownership away from end users and toward specialised developers and infrastructure capital, it can unlock geothermal in markets where electricity tariffs are low but demand for reliable, low-carbon process heat is strong. From kWh to “heat-as-a-service” Traditional geothermal projects earn revenue by selling electricity into a grid, often at wholesale prices that barely cover high up-front drilling and plant costs unless there is a feed-in tariff or premium.Many industrial users, however, do not need electricity; they need heat for processes like brewing, greenhouse climate control or pulp and paper production, and they currently buy that ...

Oil to Geothermal: How Drilling Crews Are Powering the Talent Pipeline

Geothermal’s workforce story is increasingly a story about people who used to drill for oil now drilling for heat instead.  Image : A Thematic picture of an oil and gas worker  The same crews and engineers who perfected unconventional shale, deepwater wells and complex subsurface projects are being redeployed into enhanced geothermal systems, closed loop concepts and district heating, and the speed of that transition will determine how fast the project pipeline can actually be built. Below is a revised article without hyphens or commas in the prose. I will still use periods and headings so it stays readable. Geothermal Talent And The Oil To Geothermal Workforce Transition The most important geothermal technology of the next decade might not be new hardware or software. It might be people. Thousands of oilfield workers geoscientists and engineers already know how to drill deep complex wells and keep them under control. As enhanced geothermal systems and advanced concepts move f...

Geothermal Salary Guide 2026 by Country: USA, Germany, UK, Canada, Netherlands and Global Pay Outlook

Geothermal Salary Guide 2026 by Country Geothermal careers in 2026 are being shaped by a stronger global push for firm, low-carbon energy, rising demand for skilled drilling and subsurface talent, and the expansion of heating, cooling, and power applications. The market is no longer just about traditional geothermal power plants ; it is also being pulled forward by data center demand , heat decarbonization , and next-generation geothermal technologies such as enhanced geothermal systems . Those trends are creating new salary pressure in countries with mature energy sectors and strong technical labor markets. The most attractive salary markets in this group are the United States, Germany, the United Kingdom, Canada, and the Netherlands, but each country offers a different mix of base pay, taxes, benefits, and career growth. The right way to evaluate geothermal pay is to look at both nominal salary and real purchasing power, because a higher number on paper does not always mean better ta...

How AI-Powered Digital Twins Are Transforming Geothermal Reservoir Management

Geothermal Reservoir Digital Twins: How AI Is Transforming Reservoir Management Image : Thematic image of a geothermal heat pump Artificial intelligence and digital twins are quietly rewriting the playbook for geothermal reservoir management. They turn scattered subsurface data into living, predictive models that help operators boost output, cut drilling risk, and extend the productive time. How Geothermal Digital Twins Are Making Reservoirs Smarter, Safer, and More Profitable For decades, geothermal development has been constrained by one brutal fact: you can’t see 3 km underground. You infer, you model, you hope—and sometimes you drill into a dry or underperforming reservoir. AI‑powered geothermal digital twins change that equation by continuously updating subsurface models with real‑time data, making the invisible reservoir behave like a transparent, responsive system. In practice, geothermal digital twins are dynamic software replicas of wells, reservoirs, and surface facilities th...

Utah FORGE Extended Circulation Boosts Enhanced Geothermal Research

Utah FORGE Begins Extended Circulation Utah FORGE has launched an extended circulation test at its Milford, Utah field site, marking a major step forward in the development of enhanced geothermal systems. The new phase is designed to examine how the reservoir behaves during continuous operation and to generate the long-term performance data needed to evaluate commercial viability. For a project focused on de-risking geothermal technology, this is one of the most important milestones yet. Introduction Utah FORGE, the world’s only full-scale field laboratory dedicated to testing and improving the technologies required for enhanced geothermal systems , has entered a new extended circulation phase at its site approximately 10 miles northeast of Milford, Utah. The test is expected to run for roughly four months, with the possibility of extending to 120 days depending on operational conditions. This stage matters because geothermal development is not only about finding heat underground; it i...

EGS Market Size and Investment Outlook

Enhanced Geothermal Systems (EGS) Market Size and Investment Outlook to 2034 Enhanced Geothermal Systems are at an inflection point. For years, EGS sat in the “promising but pre‑commercial” category of clean technologies, constrained by drilling cost, subsurface risk, and limited policy attention. That picture is now changing as next‑generation geothermal developers raise larger rounds, sign serious offtake agreements, and move projects from concept to execution.   At the same time, global demand for firm, low‑carbon power is rising faster than conventional geothermal can supply. Thermal plants are retiring, grids need 24/7 clean electricity, and policymakers are discovering that weather‑dependent renewables cannot carry the entire load alone. EGS is emerging as one of the few technologies capable of delivering baseload clean power using a resource available almost everywhere: deep, hot rock. Current EGS Market Size – Small but Strategic In absolute terms, the EGS market is s...

Neptune Energy’s Altmark Lithium Pilot Phase II Advances Adsorption-Based DLE for European Battery Supply

Neptune Energy launches Pilot Phase II for lithium extraction in the Altmark: paving the way for European battery supply Neptune Energy has begun the second pilot phase of its Altmark Lithium Extraction Project (ALE). After a broad evaluation of  Direct Lithium Extraction (DLE) technologies in pilot phase I, the company is now focusing on an adsorption process and testing various adsorbent materials together with the Fraunhofer Institute for Energy Infrastructures and Geotechnologies (IEG). The project aims to recover lithium from thermal deep groundwater in northern Saxony-Anhalt economically and with environmental safeguards , a step toward regional supply chains for battery raw materials in Europe. Project status and technical objectives A project-related resource of around 43 million tonnes of lithium carbonate equivalent (LCE) has been identified in the Altmark. The lithium is dissolved in thermal water at depths between approximately 3,000 and 4,000 metres. Neptune Energy...