Course overview
Geothermal energy sits apart from most renewables because it delivers baseload power around the clock, unaffected by weather or time of day. Turning that promise into a working project depends on getting the subsurface work right: reading the geology, running the correct geophysical and geochemical surveys, and building a defensible picture of the resource before any expensive well is drilled. This course walks through that full exploration and evaluation sequence and places it inside the wider shift toward low-carbon energy.
Participants examine how conventional hydrothermal fields and enhanced geothermal systems (EGS) are identified, characterized, and de-risked, and how geothermal is combined with other sources such as solar, wind, and storage. The material connects technical exploration methods with the policy, financing, and environmental questions that decide whether a resource ever reaches production. Those interested in the broader upstream context may also find our Sustainable Energy Resource Exploration course a useful companion.
Why this matters for energy organizations
Most geothermal projects fail or stall not at the power plant but underground, during the exploration and drilling phases where uncertainty is highest and costs climb fastest. A single unsuccessful deep well can absorb a large share of an early budget, so the quality of survey interpretation and resource estimation has a direct effect on whether a development is bankable. As IRENA and the IEA continue to point to geothermal as an underused contributor to net-zero targets, organizations that can read the subsurface accurately hold a real advantage.
The technology base is also widening. Enhanced geothermal systems open the possibility of generating power in regions without natural hydrothermal reservoirs, which changes where exploration teams look and how they assess risk. Understanding both conventional and engineered approaches helps energy professionals judge which sites are worth pursuing and how to sequence the spending that follows.
What you will be able to do afterwards
By the end of the course, participants will be able to:
- Distinguish hydrothermal, sedimentary, and EGS resources.
- Select surface, geophysical, and geochemical survey methods.
- Build a first-order volumetric estimate of geothermal potential.
- Interpret reservoir models to judge size and sustainability.
- Rank technical and financial risks across drilling stages.
- Explain how geothermal integrates with storage and grids.
- Assess environmental, social, and regulatory constraints.
Course outline
Unit 1: Introduction to renewable energy and geothermal systems
- Renewable energy outlook: IEA, IRENA, and Paris Agreement.
- Hydrothermal versus enhanced geothermal systems (EGS).
- Baseload role of geothermal in the net-zero transition.
- Capacity factor, land use, and dispatchability compared.
Unit 2: Geothermal exploration techniques
- Geological mapping and thermal manifestations.
- Magnetotelluric, resistivity, gravity, and seismic surveys.
- Geochemical sampling and geothermometry for reservoirs.
- Case studies combining survey and remote sensing results.
Unit 3: Resource evaluation and reservoir assessment
- Volumetric and stored-heat estimates of resource potential.
- Reservoir modeling and numerical simulation of fluid flow.
- Drilling and sampling: slim holes to full-diameter wells.
- Risk assessment across resource, drilling, and appraisal.
Unit 4: Renewable energy integration and policy
- Grid balancing through geothermal and energy storage.
- Licensing, resource ownership, and regulatory frameworks.
- Financing, exploration risk, and cost of capital.
- International markets for scaling geothermal development.
Unit 5: Sustainable development of geothermal resources
- Induced seismicity, water use, and emissions.
- Community engagement with local stakeholders.
- Reinjection and reservoir pressure maintenance.
- Monitoring well integrity, decline, and closed-loop design.
How the course is delivered
The course is led by an experienced instructor and built around expert-led discussion, worked examples, and documented case studies from real geothermal exploration and development projects. Participants are taken through guided walkthroughs of survey interpretation, resource estimation, and reservoir characterization outputs, with group discussion used to compare approaches and test judgment. There is no live drilling, laboratory, or field exercise; the emphasis is on understanding methods, reading results, and reasoning through decisions. Because Unit 4 touches on financing and investment, please note that this content is educational only and is not financial or investment advice.
Who should attend
The course suits professionals involved in the assessment, development, or oversight of geothermal and renewable energy projects, including those moving into the field from adjacent disciplines.
- Geologists, geophysicists, and geoscientists working on or moving toward geothermal exploration.
- Reservoir, drilling, and energy engineers assessing subsurface resources.
- Project developers and technical managers evaluating renewable energy opportunities.
- Energy policy, planning, and regulatory staff who review clean energy proposals.
- Analysts and consultants supporting renewable energy investment decisions.
About EuroQuest International Training
EuroQuest International Training was founded in 2015 and delivers more than 1,000 professional development courses to over 15,000 participants worldwide. The organization is headquartered in Bratislava, Slovakia, with training hubs that include Dubai, London, Barcelona, Istanbul, Vienna, Paris, and Geneva.
Frequently asked questions
Do I need a geoscience or engineering background to follow this course?
A technical background helps, but it is not essential. The course explains the geological and physical concepts behind each exploration method as it goes, so professionals from policy, project management, or investment roles can follow the material and understand what the survey and reservoir results mean.
Does the course cover enhanced geothermal systems as well as conventional fields?
Yes. Both conventional hydrothermal resources and enhanced geothermal systems (EGS) are covered, including how exploration strategy and risk assessment differ between them. This matters because EGS extends geothermal potential to regions without natural reservoirs.
Will this course certify me as a geothermal exploration specialist?
No. The course is educational and builds practical understanding, but it does not provide certification or a professional qualification. It is delivered through discussion and case-study analysis, with no live lab or field component.
Related courses
- Renewable Energy Integration in Traditional Energy Systems
- Energy Storage Technologies and Future Innovations
- Sustainable Energy Strategies and Renewable Integration
- Green Hydrogen and Future Energy Solutions
Register for this course
To reserve a place or ask about upcoming sessions, contact EuroQuest International Training to register your interest and receive full details on scheduling and locations.
All Course Dates & Locations
29 dates · 15 cities · Sep 2026 – Jul 2027