Global geothermal intelligence

Find geothermal opportunity anywhere on Earth.

A machine-learning powered geothermal intelligence platform. We combine global subsurface data, probabilistic 3D thermal modeling, and uncertainty-aware prospect ranking so teams can identify where geothermal development is most worth investigating.

Global geothermal intelligence map showing temperature predictions and geothermal activity indicators.

Global geothermal intelligence map • Probabilistic temperature predictions across 278 assessed jurisdictions

Platform

A global intelligence platform for geothermal prospectivity.

Geothermal Radar integrates geothermal-relevant evidence into a probabilistic 3D view of subsurface thermal opportunity. The output is not another static map — it is a decision-support system for ranking geothermal opportunities and understanding the uncertainty behind each one.

01

Global geothermal evidence

A broad and growing collection of geothermal, subsurface, thermal, spatial, and proprietary analytical layers, structured into one intelligence environment.

02

Probabilistic 3D thermal modeling

Estimates of deep thermal conditions and their uncertainty across the depth ranges relevant to EGS, superhot rock, closed-loop, and conventional geothermal.

03

Prospectivity ranking

Compare sites, regions, and project concepts using model-guided geothermal prospectivity scores designed to support expert review and next-step planning.

Narrow a region. See what passes.

Filter locations by temperature at depth, sediment thickness, stress regime, infrastructure context, and more — with pass rates updated as filters change.

Area-of-interest dashboard ranking locations with infrastructure and screening filters.
How it works

From global data to decision-ready geothermal intelligence.

The workflow is built for high-stakes early decisions: integrate evidence, model thermal conditions, quantify uncertainty, rank opportunities, and focus the next diligence step.

Step 01

Integrate evidence

Geothermal-relevant evidence pulled together across regions, depths, and data types — including measured thermal data where available.

Step 02

Model conditions

Spatial, statistical, stochastic, and probabilistic models estimate the 3D thermal profile and geothermal prospectivity.

Step 03

Quantify uncertainty

GRMS-aligned P10, P50, and P90 views show where evidence is stronger, where it is missing, and how that should shape the decision.

Step 04

Rank opportunities

A consistent prospectivity framework that supports screening, diligence, and strategic comparisons across very different regions.

Step 05

Focus the next move

Decide what to investigate next: fieldwork, partnerships, data acquisition, investment review, or project-specific engineering.

Location depth

Inspect every location — surface to deep thermal state.

Each location carries a structured set of attributes: temperature at depth, heat flow, surface temperature, sediment thickness, conductivity, lithology, stress regime, and more. Outputs are exposed to expert review without hiding the underlying model logic.

One location, dozens of model layers.

Geothermal Radar pulls together a deep stack of geothermal, subsurface, and engineering attributes for every location — readable, comparable, and ready for technical interrogation.

Location detail: geothermal model outputs including temperature, depth, heat flow, conductivity, sediment thickness, geology, and additional attributes.
Uncertainty, made explicit

Every prediction comes with its uncertainty range.

Temperature-at-depth is not given as a single number. Geothermal Radar reports GRMS-aligned P10, P50, and P90 views — best, central, and conservative scenarios — so teams can see how the model thinks, not just what it concludes.

P10 geothermal temperature-depth estimate showing a high-temperature scenario within the model uncertainty range.
P10 Scenario (Optimistic)

High-temperature scenario within the model uncertainty bounds.

P50 geothermal temperature-depth model showing central temperature prediction with uncertainty bounds.
P50 Scenario (Central)

Central temperature prediction calibrated against regional lithosphere models.

P90 geothermal temperature-depth estimate shown within an uncertainty-bounded gradient model.
P90 Scenario (Conservative)

Conservative baseline scenario bounded by minimum gradient constraints.

AI and machine learning

Applied machine learning, not AI hype.

For Geothermal Radar, AI is not a chatbot. It is applied machine learning and probabilistic modeling that integrate complex, incomplete earth data into better prospectivity ranking, uncertainty estimation, and exploration decisions.

Technology

Built for the complexity of the subsurface.

Geothermal Radar models deep thermal conditions across the globe, including the depth ranges relevant to enhanced geothermal systems, superhot rock, closed-loop concepts, and conventional geothermal. The probabilistic 3D thermal framework extends up to 1300 degrees Celsius and is designed to work in both data-rich provinces and frontier regions where direct measurements are limited.

The platform combines measured thermal evidence where available, aggregated subsurface and thermal models, proprietary analytical layers, spatial and stochastic modeling, and a learning meta-model that updates as new public, proprietary, or client data becomes available.

One of the most comprehensive global geothermal datasets.

A broad model suite and analytical foundation focused on geothermal prospectivity screening, without exposing proprietary inputs or calculation details.

Uncertainty-aware by design.

Geothermal Radar shows where confidence is stronger, where evidence is missing, and how GRMS-aligned P10, P50, and P90 views inform interpretation.

Designed around GRMS-style resource thinking.

Built for quantitative geothermal evaluation with uncertainty views familiar to technical teams already working inside GRMS-style frameworks.

Pressure and density model comparing hydrostatic, mud, and lithostatic profiles by depth.

Subsurface pressure regime • Hydrostatic, mud weight, and lithostatic profiles

Who it is built for

Built for the teams making geothermal decisions.

Technical teams who need depth, executives who need clear decision value, and reviewers who need credible boundaries around what the platform actually does.

Developers

Screen acreage and prioritize diligence.

Compare prospects, identify stronger starting points, and focus technical effort before committing to costly site-level programs.

Energy companies

Assess regional geothermal strategy.

Evaluate opportunity across countries, basins, concessions, and development corridors with consistent model-guided intelligence.

Hyperscalers

Find firm clean-power potential.

Understand where EGS, superhot rock, closed-loop, or conventional geothermal can support strategic load growth and firm clean power procurement.

Industrial buyers

Explore power and heat options.

Screen geothermal potential near industrial demand, process-heat needs, and infrastructure constraints, with particular relevance for EGS and high-temperature concepts.

Investors

Compare opportunities before capital decisions.

Review opportunity quality, uncertainty, and the next evidence needed before committing capital or partnership resources.

Governments and reviewers

Evaluate potential across jurisdictions.

Support geothermal resource assessment, policy planning, competition review, and public-sector energy strategy.

Where it fits

Built to inform the highest-stakes decisions, not replace the experts who make them.

Geothermal Radar earns its place at the front of the workflow. It hands off cleanly to engineering, fieldwork, and the people who know the rock.

Informs decisions

A stronger starting point for screening, diligence, investment review, and strategic planning — more disciplined than ad hoc spreadsheets, deeper than a static map.

Respects your experts

Outputs are made for geologists, engineers, and decision-makers — readable, uncertainty-aware, and grounded in evidence, not black-box scores.

Focuses the next move

The platform is built to help decide where to look first, what to investigate next, and which evidence is worth seeking.

Commercial Access & Tiers

Flexible Access for Every Stage of Exploration

From open-access global screening to dedicated private subsurface intelligence and custom concession modeling.

Free Tier
$0

Open global screening intelligence across 278 jurisdictions.

  • 278 Country Screening Dossiers
  • Depth vs. Temperature Matrices (150–250°C)
  • 4-Stage Resource & Infrastructure Funnel
  • Interactive 3D Sandbox (Oklahoma, Yemen, Yunnan)
Launch Free Sandbox
Premium Tier
Project Level

Pre-feasibility volumetric temperature grids & GIS layers for project developers.

  • High-Resolution Temperature Grids (NetCDF/GeoTIFF)
  • GRMS-aligned P10, P50, and P90 uncertainty models
  • Lithostatic & hydrostatic pressure profiles
  • Sediment thickness & fault stress layers
  • GIS Shapefiles & substation vectors
Explore Premium Data
Asset-Level Diligence
Enterprise
Custom Solutions

Dedicated simulation infrastructure, private API, and bespoke regional modeling.

  • Custom Concession Models (<1 km mesh)
  • REST / GraphQL Simulation API integration
  • Proprietary seismic & confidential well ingestion
  • On-Premises / Private VPC deployment
  • Direct principal geophysicist advisory
Enterprise Inquiry
Partners & Institutional Support
Supported by:
Rose Rock Bridge
Rose Rock Bridge
Implementation partner:
Geothermal Energy Advisors
Geothermal Energy Advisors
Academic partners:
Keele University
Università degli Studi di Perugia
University of Tasmania
Khalifa University
Global Academic Network
Get in touch

See what Geothermal Radar can show you.

Whether you are screening a region, evaluating a site, comparing development options, or shaping geothermal strategy for EGS, superhot rock, closed-loop systems, or firm clean power — Geothermal Radar can help you understand where to look first and what to investigate next.

founders@geothermalradar.com