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DOE Allocates $10.75 Million for University Geothermal Research and Workforce Training

DOE’s $10.75 Million University Push Could Reshape the Geothermal Talent Pipeline Image: Thematic image of a geothermal power plant   The U.S. Department of Energy’s Hydrocarbons and Geothermal Energy Office has announced up to $10.75 million for U.S. colleges and universities to support early-stage research and training in subsurface energy development. The program sits inside the University Training and Research framework, and it is designed to strengthen the next generation of energy professionals while advancing research relevant to geothermal, oil and gas, and coal-related subsurface challenges . This announcement matters because it goes beyond a simple grant call. It connects university research, student training, and industry relevance in one funding structure, which is exactly the kind of model geothermal advocates have long argued is needed to accelerate deployment. For the U.S. geothermal sector, the message is clear: talent development is now part of energy infrastruct...

“Mazama Energy Unveils the World’s Hottest Geothermal System — A Blueprint for Terawatt-Scale Clean Energy”

 Mazama Energy Ignites a New Era: The World’s Hottest Geothermal System Powers Toward a Carbon-Free Future

By Robert Buluma , October 2025

In a quiet corner of Oregon’s Cascade Range, deep beneath the rugged volcanic landscape of Newberry, a new energy revolution is taking shape. Mazama Energy — a startup incubated by Khosla Ventures and backed by Gates Frontier — has just achieved a technological milestone that could change the way we power the planet.

At a staggering 629 °F (331 °C), Mazama’s newly completed Enhanced Geothermal System (EGS) is now the hottest ever recorded on Earth. And this is just the beginning. By 2026, the company expects to push those temperatures to 750 °F (400 °C) — unlocking enough energy to power gigawatts of clean electricity from this single site.

🔥 Cracking the Code of the Earth’s Heat

For decades, geothermal energy has been the “quiet cousin” of renewables — clean, reliable, but limited to places where hot water naturally flows near the surface. Most geothermal startups have made little dent in the U.S. energy mix.

Mazama Energy is rewriting that story. Using cutting-edge drilling techniques, proprietary Thermal Lattice™ stimulation, and high-temperature materials inspired by the oil and gas industry, the company has done what was once thought impossible: created an artificial geothermal reservoir in impermeable rock — where none existed before.

Their system connects a legacy injector well with a newly drilled 10,200-foot producer well, precisely aligned within six feet of its target trajectory. The result? A robust geothermal reservoir with exceptional connectivity, verified through real-time diagnostics and fiber-optic monitoring.

“This is the fulfillment of a vision from nearly fifty years ago,” says Dr. John McLennan of Utah FORGE, referencing early geothermal experiments at Los Alamos National Laboratory. “Mazama’s success validates what researchers have dreamed of for decades — a fully functional, man-made geothermal system.”

⚡ Why It Matters: Terawatt-Scale Clean Power for an AI-Driven World

As the world races toward electrification, the rise of AI and data centers has created an unprecedented hunger for 24/7, high-density, carbon-free energy. Traditional renewables like wind and solar, while vital, are intermittent. Nuclear remains slow and costly to deploy. Fossil fuels are fast — but come with a devastating carbon price.

Mazama’s breakthrough promises a different future:

Up to 10x more power density than current geothermal wells

75% less water use

80% fewer wells needed

Electricity under 5¢ per kWh — competitive with natural gas


And crucially, this technology is globally scalable. With superhot geothermal systems, nearly any deep rock formation on Earth can become a source of power — no sunshine or wind required.

“With geothermal, you get global, round-the-clock energy that is carbon-free, cost-stable, and grid-independent,” says Sriram Vasantharajan, CEO of Mazama Energy. “It’s the perfect match for the next generation of AI infrastructure.”

🧠 Drilling for the Digital Age

Imagine a world where massive AI data centers — the beating heart of digital civilization — draw power not from coal or gas plants, but from the Earth’s own heat. Mazama’s geothermal platform enables 24/7 baseload energy at locations previously impossible for renewables.

That means data centers could rise in remote, cooler climates or even deserts — anywhere stable, high-temperature rock exists beneath the surface.

This is not just about clean energy; it’s about energy sovereignty. The ability to generate massive, reliable power anywhere could fundamentally reshape global energy geopolitics — decentralizing production and stabilizing costs for decades.

🪨 The Science Behind the Breakthrough

Mazama’s Thermal Lattice™ process is the secret sauce. Building on principles of hydraulic fracturing, it uses custom-designed fluids, nano-tracers, and real-time fiber-optic diagnostics to create a network of fractures that serve as efficient heat exchangers.

The company’s achievements include:

Peak drilling speeds of 100 feet per hour

Record bit runs up to 2,760 feet through volcanic rock

Zero downhole failures and flawless well integrity even at ultra-high temperatures


These performance metrics go far beyond typical oil and gas operations — pushing the limits of materials science and engineering.

🌍 Toward a Terawatt Future

Mazama’s roadmap starts with a 15 MW pilot and expands to a 200 MW development at Newberry. Beyond that, they envision a global rollout of SuperHot Rock wells capable of delivering hundreds of gigawatts — enough to power nations, industries, and AI-driven cities of the future.

For investors and environmentalists alike, this is a moonshot moment — the geothermal equivalent of SpaceX’s first reusable rocket.

Vinod Khosla put it best:

> “Hardcore technology development for superhot temperature drilling and artificial reservoirs is critical to making geothermal energy relevant at scale. This is the blueprint for terawatt-scale, carbon-free baseload power.”



🔋 The Earth’s Core: Humanity’s Oldest, Newest Power Source

Beneath our feet lies an inexhaustible energy source — the residual heat from Earth’s formation and nuclear decay — radiating outward from the planet’s molten core. It’s been there for billions of years, waiting for us to harness it efficiently.

Mazama Energy has now opened that door.

If they can scale what they’ve achieved at Newberry, the future of clean, constant, carbon-free energy may no longer lie in the sky — but deep within the Earth itself.

🌋 Mazama Energy Ignites a New Era: The World’s Hottest Geothermal System Powers Toward a Carbon-Free Future

By [Your Name], October 2025

In a quiet corner of Oregon’s Cascade Range, deep beneath the rugged volcanic landscape of Newberry, a new energy revolution is taking shape. Mazama Energy — a startup incubated by Khosla Ventures and backed by Gates Frontier — has just achieved a technological milestone that could change the way we power the planet.

At a staggering 629 °F (331 °C), Mazama’s newly completed Enhanced Geothermal System (EGS) is now the hottest ever recorded on Earth. And this is just the beginning. By 2026, the company expects to push those temperatures to 750 °F (400 °C) — unlocking enough energy to power gigawatts of clean electricity from this single site.

🔥 Cracking the Code of the Earth’s Heat

For decades, geothermal energy has been the “quiet cousin” of renewables — clean, reliable, but limited to places where hot water naturally flows near the surface. Most geothermal startups have made little dent in the U.S. energy mix.

Mazama Energy is rewriting that story. Using cutting-edge drilling techniques, proprietary Thermal Lattice™ stimulation, and high-temperature materials inspired by the oil and gas industry, the company has done what was once thought impossible: created an artificial geothermal reservoir in impermeable rock — where none existed before.

Their system connects a legacy injector well with a newly drilled 10,200-foot producer well, precisely aligned within six feet of its target trajectory. The result? A robust geothermal reservoir with exceptional connectivity, verified through real-time diagnostics and fiber-optic monitoring.

“This is the fulfillment of a vision from nearly fifty years ago,” says Dr. John McLennan of Utah FORGE, referencing early geothermal experiments at Los Alamos National Laboratory. “Mazama’s success validates what researchers have dreamed of for decades — a fully functional, man-made geothermal system.”

⚡ Why It Matters: Terawatt-Scale Clean Power for an AI-Driven World

As the world races toward electrification, the rise of AI and data centers has created an unprecedented hunger for 24/7, high-density, carbon-free energy. Traditional renewables like wind and solar, while vital, are intermittent. Nuclear remains slow and costly to deploy. Fossil fuels are fast — but come with a devastating carbon price.

Mazama’s breakthrough promises a different future:

Up to 10x more power density than current geothermal wells

75% less water use

80% fewer wells needed

Electricity under 5¢ per kWh — competitive with natural gas


And crucially, this technology is globally scalable. With superhot geothermal systems, nearly any deep rock formation on Earth can become a source of power — no sunshine or wind required.

“With geothermal, you get global, round-the-clock energy that is carbon-free, cost-stable, and grid-independent,” says Sriram Vasantharajan, CEO of Mazama Energy. “It’s the perfect match for the next generation of AI infrastructure.”

🧠 Drilling for the Digital Age

Imagine a world where massive AI data centers — the beating heart of digital civilization — draw power not from coal or gas plants, but from the Earth’s own heat. Mazama’s geothermal platform enables 24/7 baseload energy at locations previously impossible for renewables.

That means data centers could rise in remote, cooler climates or even deserts — anywhere stable, high-temperature rock exists beneath the surface.

This is not just about clean energy; it’s about energy sovereignty. The ability to generate massive, reliable power anywhere could fundamentally reshape global energy geopolitics — decentralizing production and stabilizing costs for decades.

🪨 The Science Behind the Breakthrough

Mazama’s Thermal Lattice™ process is the secret sauce. Building on principles of hydraulic fracturing, it uses custom-designed fluids, nano-tracers, and real-time fiber-optic diagnostics to create a network of fractures that serve as efficient heat exchangers.

The company’s achievements include:

Peak drilling speeds of 100 feet per hour

Record bit runs up to 2,760 feet through volcanic rock

Zero downhole failures and flawless well integrity even at ultra-high temperatures


These performance metrics go far beyond typical oil and gas operations — pushing the limits of materials science and engineering.

🌍 Toward a Terawatt Future

Mazama’s roadmap starts with a 15 MW pilot and expands to a 200 MW development at Newberry. Beyond that, they envision a global rollout of SuperHot Rock wells capable of delivering hundreds of gigawatts — enough to power nations, industries, and AI-driven cities of the future.

For investors and environmentalists alike, this is a moonshot moment — the geothermal equivalent of SpaceX’s first reusable rocket.

Vinod Khosla put it best:

> “Hardcore technology development for superhot temperature drilling and artificial reservoirs is critical to making geothermal energy relevant at scale. This is the blueprint for terawatt-scale, carbon-free baseload power.”



🔋 The Earth’s Core: Humanity’s Oldest, Newest Power Source

Beneath our feet lies an inexhaustible energy source — the residual heat from Earth’s formation and nuclear decay — radiating outward from the planet’s molten core. It’s been there for billions of years, waiting for us to harness it efficiently.


Mazama Energy has now opened that door.

If they can scale what they’ve achieved at Newberry, the future of clean, constant, carbon-free energy may no longer lie in the sky — but deep within the Earth itself.


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