Imagine drilling much deeper than usual to reach the Earth's 'super-hot' zones where temperatures top 400°C. It's like finding a massive, untapped battery of heat that can produce way more electricity than standard geothermal wells. This project uses AI and tougher materials to make sure the drills don't melt or break while reaching these depths.
Conventional geothermal energy is limited by shallow depths and lower temperatures, restricting the amount of power a single well can produce. Drilling deeper into superhot zones is currently too risky and expensive due to extreme heat and pressure.
A first-of-a-kind demonstration of superhot power generation, including AI-driven drilling advisory systems and robust well designs for temperatures over 400°C.
If you are a power plant operator dealing with the low energy density of shallow geothermal sites — this project developed superhot geothermal strategies that yield several-fold higher output per well. This allows for more electricity generation from a smaller surface footprint.
If you are a drilling company dealing with equipment failure in extreme heat and pressure — this project developed robust drilling strategies and AI-driven magma alarms. This reduces the risk of losing expensive drill strings in superhot formations.
If you are a software firm dealing with the unpredictability of deep-earth drilling — this project developed a physics-informed AI drilling advisory system. This tool provides real-time operational guidance to prevent catastrophic failures during deep-well construction.
The project aims to reduce costs by validating that accessing deeper, hotter formations can yield several-fold higher output per well compared to conventional systems.
The project is designed to raise the technology from TRL 5 to TRL 7 through a first-of-a-kind demonstration at Nesjavellir and the Hengill field.
Based on available project data, the project develops a physics-informed AI drilling advisory system and magma-proximity alarm aligned with the EU AI Act and GDPR, though specific licensing terms are not listed.
The AI components are specifically aligned with the EU AI Act, FAIR principles, and GDPR.
The project is scheduled to run from May 1, 2026, to April 30, 2029.
The consortium is heavily industry-weighted with a 53% industry ratio (9 companies), including 3 SMEs. This suggests a strong focus on commercial viability and practical application rather than pure academic research. With 17 partners across 5 countries (DE, FR, IS, IT, UK), the project leverages a broad European base of drilling and energy expertise.
Contact ORKUVEITA REYKJAVIKUR SF in Iceland
Contact us to identify partners for superhot geothermal deployment.
