Geothermal Energy in Poland: Deep Research Brief
Executive Summary
Poland represents a rapidly emerging European geothermal heat market, transitioning from a niche sector to a strategic pillar of the country's energy transition. With 8 operational geothermal heating plants, over 43 documented thermal water deposits, and a project pipeline of 72 developments, the sector is poised for significant expansion under the 2022 Geothermal Road Map, which envisages 50 systems by 2040 . Unlike the Netherlands' shallow, low-enthalpy resource, Poland's geothermal assets include higher-temperature reservoirs (up to 90°C at 2,600 meters) and strong government backing through substantial subsidy programs totaling 920 million złotys (€215 million) for 56 drillings between 2016-2025 . Electricity generation remains a secondary, longer-term prospect tied to innovative technologies such as CO₂-EGS systems .
1. Sector Status and Resource Base
1. Sector Status and Resource Base
Current Operational Landscape
Poland operates 8 geothermal heating plants (as of 2025), with the tenth installation recently brought online in Konin . The sector is characterized by medium-temperature resources (20°C-150°C) based on natural hydrogeothermal systems .
Poland operates 8 geothermal heating plants (as of 2025), with the tenth installation recently brought online in Konin . The sector is characterized by medium-temperature resources (20°C-150°C) based on natural hydrogeothermal systems .
Key resource data from the 2024 Polish Geological Institute (PGI-NRI) balance sheet:
· 43 documented thermal water deposits
· 28 documented thermal medicinal water deposits
Poland is considered "still at the beginning of wider geothermal exploitation," with Germany and Hungary having larger shares in their renewable energy mixes, but the project pipeline of 72 developments makes it one of Europe's most active geothermal DHC (district heating and cooling) markets .
Geological Conditions
· 43 documented thermal water deposits
· 28 documented thermal medicinal water deposits
Poland is considered "still at the beginning of wider geothermal exploitation," with Germany and Hungary having larger shares in their renewable energy mixes, but the project pipeline of 72 developments makes it one of Europe's most active geothermal DHC (district heating and cooling) markets .
Geological Conditions
The Polish subsurface offers diverse geothermal reservoirs:
· Cretaceous and Jurassic aquifers – primary targets in central and northern Poland (Łódź, Poznań, Gniezno)
· Triassic and Permian formations – exploited in Podhale and other southern regions
· Carboniferous formations – explored in the Sudetes and other areas
The Podhale region, where the Banska PGP-7 well targets depths exceeding 4,000 meters, demonstrates the potential for significant capacity expansion .
2. Major Active Projects and Recent Milestones
· Cretaceous and Jurassic aquifers – primary targets in central and northern Poland (Łódź, Poznań, Gniezno)
· Triassic and Permian formations – exploited in Podhale and other southern regions
· Carboniferous formations – explored in the Sudetes and other areas
The Podhale region, where the Banska PGP-7 well targets depths exceeding 4,000 meters, demonstrates the potential for significant capacity expansion .
2. Major Active Projects and Recent Milestones
Konin – New Geothermal Heating Plant (2025)
The city of Konin commissioned its 10th geothermal installation in Poland in late 2025, operated by municipal company MPEC Konin .
Technical specifications:
Parameter Value
Depth ~2,600 meters
Water temperature ~90°C
Current capacity 2 MW
Installed capacity 8 MW
System Double-well (GT-1 extraction, GT-3 reinjection)
Financial structure (PLN 67 million total):
· NFOŚiGW grant: 26 million PLN
· NFOŚiGW loan: 18 million PLN
· Local government: 4 million PLN
· MPEC Konin: remainder
The city of Konin commissioned its 10th geothermal installation in Poland in late 2025, operated by municipal company MPEC Konin .
Technical specifications:
Parameter Value
Depth ~2,600 meters
Water temperature ~90°C
Current capacity 2 MW
Installed capacity 8 MW
System Double-well (GT-1 extraction, GT-3 reinjection)
Financial structure (PLN 67 million total):
· NFOŚiGW grant: 26 million PLN
· NFOŚiGW loan: 18 million PLN
· Local government: 4 million PLN
· MPEC Konin: remainder
Local authorities plan new seismic studies in 2026 to assess feasibility of additional well (GT-4) and explore future applications including thermal pools and residential heating .
Geotermia Podhalańska – Capacity Expansion
Banska PGP-7 production well is the 4th well for the Podhale geothermal heating project serving Zakopane .
Geotermia Podhalańska – Capacity Expansion
Banska PGP-7 production well is the 4th well for the Podhale geothermal heating project serving Zakopane .
Parameter Details
Target depth 4,000 meters
Scheduled drilling June-September 2025
Expected capacity addition ~15 MWt
Current total capacity ~80 MWt
Investment 88 million PLN (€23.4M)
NFOŚiGW funding 52 million PLN (€11.9M)
Scheduled drilling June-September 2025
Expected capacity addition ~15 MWt
Current total capacity ~80 MWt
Investment 88 million PLN (€23.4M)
NFOŚiGW funding 52 million PLN (€11.9M)
The project supports infrastructure development including heat exchangers and distribution pipelines .
Gniezno – Geothermal Confirmation (2025)
The Gniezno GT-1 exploration well confirmed 75°C thermal waters beneath the city. The 15.8 million PLN project was fully financed by NFOŚiGW under the "Thermal Water Access in Poland" program .
Timeline:
· November 2023: Drilling commenced
· September 2025: Completion
· October 2025: Results announced
· November 2023: Drilling commenced
· September 2025: Completion
· October 2025: Results announced
Gniezno is analyzing scenarios including a geothermal heating plant or recreational/wellness facilities. Follow-up infrastructure (reinjection wells, technical systems) will be required .
Major Municipal Projects Under Development
· Łódź: System of approximately 100 MW planned
· Poznań: System of approximately 100 MW planned
These represent Poland's largest planned urban district heating geothermal systems.
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3. Policy Framework and Financial Support
Geothermal Road Map (2022)
The Geothermal Road Map to 2040 (with perspective to 2050) sets a target of 50 geothermal systems by 2040 . This aligns with Poland's Energy Policy to 2040 (PEP2040) and the broader EU climate objectives .
· Poznań: System of approximately 100 MW planned
These represent Poland's largest planned urban district heating geothermal systems.
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3. Policy Framework and Financial Support
Geothermal Road Map (2022)
The Geothermal Road Map to 2040 (with perspective to 2050) sets a target of 50 geothermal systems by 2040 . This aligns with Poland's Energy Policy to 2040 (PEP2040) and the broader EU climate objectives .
Financial Support Programs
Since 2016, Poland has maintained a consistent program of financial support for geothermal exploration and implementation :
· 56 geothermal drillings co-financed between 2016-2025
· Total funding: 920 million złotys (€215 million)
· "Thermal Water Access in Poland" priority program – key financing mechanism
· 56 geothermal drillings co-financed between 2016-2025
· Total funding: 920 million złotys (€215 million)
· "Thermal Water Access in Poland" priority program – key financing mechanism
Regulatory Framework
Geothermal investments require a multi-step permitting process:
1. Environmental conditions decision
2. Spatial planning verification (Local Spatial Development Plan or municipality general plan)
3. Heating grid connection conditions
4. Electricity grid connection conditions (optional)
5. Construction permit
6. Operational notification
7. Heat generation license (for systems >5 MW)
8. Electricity generation license (except micro/small systems under specified thresholds)
4. Research and Knowledge Infrastructure
Polish Geological Institute – National Research Institute (PGI-NRI)
1. Environmental conditions decision
2. Spatial planning verification (Local Spatial Development Plan or municipality general plan)
3. Heating grid connection conditions
4. Electricity grid connection conditions (optional)
5. Construction permit
6. Operational notification
7. Heat generation license (for systems >5 MW)
8. Electricity generation license (except micro/small systems under specified thresholds)
4. Research and Knowledge Infrastructure
Polish Geological Institute – National Research Institute (PGI-NRI)
PGI-NRI serves as Poland's national geological survey, implementing the "Energy Potential, Raw Materials, and Management of Thermal, Medicinal, and Brine Waters in Poland" project . Annual publications include the Balance of Thermal Water
Resources and Geothermal Energy .
SCAN-Style Exploratory Program
Under NFOŚiGW funding, PGI-NRI maintains a systematic monitoring program tracking:
· 43 thermal water deposits
· 28 medicinal thermal water deposits
· Regional hydrogeothermal condition variations
· Prospective areas for new investments
Practical Guidance for Investors
PGI-NRI, in cooperation with the Mineral and Energy Economy Research Institute of the Polish Academy of Sciences (IGSMiE PAN), published the "Guide to Rational Management of Geothermal Resources" (2025) .
Under NFOŚiGW funding, PGI-NRI maintains a systematic monitoring program tracking:
· 43 thermal water deposits
· 28 medicinal thermal water deposits
· Regional hydrogeothermal condition variations
· Prospective areas for new investments
Practical Guidance for Investors
PGI-NRI, in cooperation with the Mineral and Energy Economy Research Institute of the Polish Academy of Sciences (IGSMiE PAN), published the "Guide to Rational Management of Geothermal Resources" (2025) .
The guide covers:
· Legal basis for resource planning and documentation
· Geological and mining law obligations
· Drilling design and well construction
· Safe and efficient thermal water extraction
· Reinjection technologies
· Cost analysis (investment and operational)
· Risk insurance fund recommendations – geological risk mitigation
Academic Research Centers
· Legal basis for resource planning and documentation
· Geological and mining law obligations
· Drilling design and well construction
· Safe and efficient thermal water extraction
· Reinjection technologies
· Cost analysis (investment and operational)
· Risk insurance fund recommendations – geological risk mitigation
Academic Research Centers
Key academic institutions driving geothermal research:
· AGH University of Science and Technology (Kraków) – reservoir assessment, geothermal plant techno-economics
· Silesian University of Technology – petrophysical analysis, numerical modeling, water-rock-gas interaction studies
· Wrocław University of Science and Technology – hydrogeology, hydrogeothermics, balneology, Sudetes research
· AGH University of Science and Technology (Kraków) – reservoir assessment, geothermal plant techno-economics
· Silesian University of Technology – petrophysical analysis, numerical modeling, water-rock-gas interaction studies
· Wrocław University of Science and Technology – hydrogeology, hydrogeothermics, balneology, Sudetes research
Low-Temperature Geothermal
A Low-Temperature Geothermal Potential Map of Poland at 1:50,000 scale is under development, coordinated by PGI-NRI . This addresses ground-source heat pumps as complementary geothermal technology.
5. Key Challenges and Barriers
Technical and Geological Challenges
Reinjection of spent waters (high Total Dissolved Solids/ TDS in sandstone aquifers) – maintaining long-term stable injection remains a significant challenge .
Lack of risk mitigation measures – Poland lacks a formal geological risk insurance fund (like the Netherlands' mining damage compensation system), though such a fund has been recommended by experts .
Financial and Structural Challenges
Challenge Description
Financing diversification Need for public-private partnerships and private investors beyond public funds
Lack of risk mitigation measures – Poland lacks a formal geological risk insurance fund (like the Netherlands' mining damage compensation system), though such a fund has been recommended by experts .
Financial and Structural Challenges
Challenge Description
Financing diversification Need for public-private partnerships and private investors beyond public funds
High upfront costs Investment remains concentrated on public funding sources
Skilled workforce shortage More technical staff needed for project execution and installation operation
Regulatory and Administrative Challenges
· Prolonged investment processes due to formal and legal complexities
· Need for simplification of administrative procedures
· Modernization funding gaps for existing facilities
Sector Expert Perspectives
Beata Kępińska, Chair of the Polish Geothermal Society and co-author of the 2024 "Balance" publication, emphasizes that despite the favorable policy environment, geological risk mitigation and technical staff shortages remain critical bottlenecks .
6. Electricity Generation Prospects
Regulatory and Administrative Challenges
· Prolonged investment processes due to formal and legal complexities
· Need for simplification of administrative procedures
· Modernization funding gaps for existing facilities
Sector Expert Perspectives
Beata Kępińska, Chair of the Polish Geothermal Society and co-author of the 2024 "Balance" publication, emphasizes that despite the favorable policy environment, geological risk mitigation and technical staff shortages remain critical bottlenecks .
6. Electricity Generation Prospects
Current Status
Electricity generation from geothermal sources has not yet been commercially explored in Poland. Primary focus remains on heating, district heating, and recreational/balneological uses.
Future Pathways
CO₂-EGS (Enhanced Geothermal Systems) represent an innovative direction for the Polish geothermal sector, combining clean energy production with anthropogenic CO₂ sequestration potential. This technology uses CO₂ as a working fluid .
Cogeneration Potential
Geothermal systems may also generate electricity in a cogeneration process with heat. Licensing requirements for electricity generation apply for systems exceeding certain thresholds, with exemptions for micro/small installations .
7. Comparative Context: Poland vs. Netherlands
7. Comparative Context: Poland vs. Netherlands
Factor Poland Netherlands
Sector stage Expanding/emerging Mature/scaling
Operational plants ~8-10 30 doublets
Target depth 2,600-4,000+ m ~2,000 m
Water temperature Up to 90°C ~70°C
Target depth 2,600-4,000+ m ~2,000 m
Water temperature Up to 90°C ~70°C
Primary application District heating Greenhouse heat, district heating
Resource characterization 43 documented deposits Over 30 operational
Electricity generation Pilot/R&D stage ORC considered longer-term
Risk insurance Not yet established (under consideration) Public risk management programs
Risk insurance Not yet established (under consideration) Public risk management programs
Government funding (recent) 920 million PLN (€215M) for 56 drillings CAPEX subsidies, portfolio approach
8. Conclusions and Strategic Implications
Key Takeaways
Key Takeaways
1. Poland is at an inflection point – the sector is transitioning from exploration and demonstration to commercial deployment at scale, with 72 projects in development.
2. District heating is the primary driver – municipal systems in Łódź and Poznań (~100 MW each) represent the largest planned installations.
3. Strong government backing – consistent funding programs since 2016 have de-risked exploration and built project momentum.
4. Technical challenges persist – reinjection of high-TDS waters, geological risk mitigation, and staffing shortages remain key bottlenecks.
5. Electricity generation is a secondary pathway – though innovation in CO₂-EGS may offer a distinctive Polish niche.
2. District heating is the primary driver – municipal systems in Łódź and Poznań (~100 MW each) represent the largest planned installations.
3. Strong government backing – consistent funding programs since 2016 have de-risked exploration and built project momentum.
4. Technical challenges persist – reinjection of high-TDS waters, geological risk mitigation, and staffing shortages remain key bottlenecks.
5. Electricity generation is a secondary pathway – though innovation in CO₂-EGS may offer a distinctive Polish niche.
Strategic Recommendations
· Establish a geological risk insurance fund to reduce investment uncertainty
· Simplify administrative permitting procedures to shorten investment timelines
· Expand technical workforce development through university and vocational training programs
· Continue systematic resource characterization through PGI-NRI's annual monitoring
· Explore CO₂-EGS pilot projects to combine decarbonization with power generation
· Develop public-private partnership models to diversify financing beyond public funds
· Simplify administrative permitting procedures to shorten investment timelines
· Expand technical workforce development through university and vocational training programs
· Continue systematic resource characterization through PGI-NRI's annual monitoring
· Explore CO₂-EGS pilot projects to combine decarbonization with power generation
· Develop public-private partnership models to diversify financing beyond public funds
Poland's geothermal sector is strategically positioned to play a major role in the country's heat decarbonization, with a project pipeline comparable to Western European leaders and a government commitment that has demonstrated consistency since 2016. The next frontier is converting pipeline projects into operational plants and implementing the institutional reforms—particularly risk insurance and permitting simplification—needed to sustain momentum .
Related: Geothermal Energy in the Netherlands: Market Growth, Major Projects, and Future Power Potential

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