Skip to main content

Just In

85 Degrees Renewable Secures €200M Project Finance Framework to Expand Dutch Geothermal Heat Infrastructure

Geothermal Heat Storage in Litomerice,Czechia with drilling commenced

  Unveiling Litomerice's Geothermal Energy Storage Project: A Milestone for Sustainable Heating and Cooling



Introduction:


In a significant stride towards sustainable energy solutions, Litomerice, Czech Republic, is gearing up for the initiation of drilling activities for a pioneering geothermal energy storage and collection project. This venture is a part of the EU-funded Piloting Underground Seasonal Heat Storage In geothermal reservoirs (PUSH-IT) initiative, marking a crucial step in harnessing the Earth's thermal energy for the community. The information shared by Carlo Cariaga on ThinkGeoEnergy sheds light on the details of the SYNERGYS project's initial phase and its potential impact on the region.


1. Project Overview:


The SYNERGYS project aims to establish an innovative geothermal energy storage system in Litomerice, Czech Republic. The initial phase involves drilling two exploratory wells, one at 550 meters and another at 200 meters, to gather essential data for the comprehensive design of the entire system. This project is part of the larger PUSH-IT initiative, which is funded by the European Union.


2. Data Collection through Exploratory Wells:


The exploratory wells play a pivotal role in understanding the geological characteristics of the area. Measurements taken from these wells will determine the groundwater abundance and flow direction. Additionally, data on system parameters, such as well depth and number, will be crucial for optimizing the efficiency of the geothermal energy storage and collection system.


3. Core Sampling for Thermal Capacity:


Approximately 500 meters of core will be extracted from the deeper well, providing insights into the total thermal capacity available for storage within the system. This information is vital for assessing the potential of Litomerice's geothermal reservoirs to serve as a sustainable heat source.


4. Monitoring Network Expansion:


To ensure the safe and efficient operation of the geothermal facility, a robust monitoring network will be established. This network will extend beyond the exploratory wells to include additional wells positioned around the well field. Combined with the existing seismic network, this comprehensive monitoring system will serve as both a safety measure and a valuable source of scientific data.


5. Long-term Implications and Collaborative Efforts:


The long-term monitoring of marginal conditions in the drilled wells will contribute to the safe operation of the facility. Moreover, the gathered data will be instrumental in amending legislation related to geothermal energy projects. Collaborative efforts among scientific institutions involved in the project ensure that the knowledge gained will benefit not only Litomerice but the entire Czech Republic and potentially other countries with a growing interest in geothermal energy.


6. Challenges and Progress:


The implementation of the geothermal project in Litomerice has faced challenges such as legislative changes, financing options, and evolving societal needs. Delays in finding a suitable drilling contractor posed obstacles, but thanks to the PUSH-IT project, the first stage, including the exploratory wells, is now underway. This financing has not only facilitated the project but also allowed for the incorporation of innovative approaches in drilling and well construction

Litomerice's geothermal energy storage project represents a commendable effort towards sustainable heating and cooling solutions. As drilling commences under the PUSH-IT initiative, the data gathered and lessons learned from this project will undoubtedly contribute to the advancement of geothermal technology not only in Litomerice but on a broader scale, emphasizing the collaborative and innovative spirit of the SYNERGYS project.


Source: Researched and Written by Robert Buluma, alphaxioms@gmail.com

Comments

Popular posts from this blog

TAQA Geothermal and Strataphy Collaborates To Advance Saudi Arabia Geothermal Cooling

PrimeLoop and the Geothermal Cooling Revolution in Saudi Arabia Image: Pictorial Views Saudi Arabia is entering a new phase in cooling technology, and geothermal cooling is becoming one of the most compelling solutions in that transition. At the center of this shift is PrimeLoop, Strataphy’s proprietary geothermal cooling system, which is being positioned as a commercial answer to one of the region’s most urgent infrastructure challenges: how to cool buildings efficiently in extreme heat while reducing electricity demand and water use. This matters because cooling is not a minor utility in the Gulf. It is a core operating cost, a grid stability issue, and an environmental pressure point all at once. In a country where ambient temperatures can push conventional air-conditioning systems to their limits, the search for smarter cooling is no longer theoretical. It is now a commercial necessity. PrimeLoop is interesting because it does not simply improve on conventional cooling. It rethinks...

University of Aberdeen and RGU partner to accelerate geothermal heating deployment

University of Aberdeen and RGU join forces to accelerate geothermal energy research and heat-network deployment Image: Lucy Leiper, Director of Research, Innovation & Enterprise at the University of Aberdeen and Christina Laing, Business Development Manager at Robert Gordon University The University of Aberdeen and Robert Gordon University (RGU) have signed a Memorandum of Agreement to explore collaborative research, training and commercial activity in geothermal energy and low-carbon heating. This strategic partnership aims to combine subsurface expertise, drilling and modelling capabilities, supply-chain development, and skills training to accelerate geothermal deployment and support the just transition to net-zero heating across Scotland and beyond. Why this partnership matters for the geothermal sector Geothermal heat offers a predictable, baseload source of low-carbon thermal energy that can decarbonise district heating, industry process heat and building heating demand. Scotl...

Geothermal Steam Output Gap, Decline, Integrity, and Life Extension

The Disparity Between Anticipated and Actual Geothermal Steam Output Image: thematic image of the Hellisheiði geothermal power plant in Iceland  Geothermal energy is one of the most dependable baseload renewables, but the gap between expected steam output and real production remains a central industry problem. Exploration models are always incomplete, and once wells are onstream, pressure decline, scaling, corrosion, and thermal breakthrough steadily erode performance. Why Forecasts Miss the Mark Exploration depends on sparse wells, surface manifestations, geophysical surveys, and geochemical indicators, so it only samples a small part of a complex reservoir. Reservoirs are rarely uniform, and permeability, porosity, mineralogy, and thermal conductivity can vary sharply over short distances, which means early temperature or chemistry readings can overstate how much of the reservoir will actually support long-term production. Phase behavior adds another layer of uncertainty. In two-...

Expro Enhanced Drilling Deal Boosts Geothermal MPD, RMR Applications

Expro completes Enhanced Drilling acquisition, implications for geothermal MPD and RMR applications Image: a thematic picture of an offshore drilling company  Summary   Expro’s acquisition of Enhanced Drilling , bringing managed pressure drilling (MPD) and riserless mud recovery (RMR) into its global portfolio, is significant for geothermal developers and drilling teams. MPD offers fine-grained control of bottomhole pressure that directly addresses narrow drilling margins, lost-circulation risk, and inflow, underbalance events common in deep, high-temperature geothermal wells and engineered geothermal systems (EGS). RMR’s capabilities for capturing and recovering drilling fluids without a riser translate to lower logistics costs and reduced environmental footprint on shallow offshore or nearshore geothermal projects and onshore marginal sites where cuttings handling is constrained. For geothermal operations, integrating MPD and RMR can improve drilling efficiency, redu...

The Economics of 10 MW, 50 MW, and 100 MW Geothermal Plants

The Economics of 10 MW, 50 MW, and 100 MW Geothermal Plants Image: A thematic image of a geothermal power plant  Geothermal power has a simple promise and a complicated price tag. It turns heat from deep underground into steady electricity, but the money goes out long before the power comes in, because exploration, drilling, plant construction, and grid connection all happen up front. That is why plant size matters so much. In general, 10 MW projects tend to be the most expensive per kilowatt, 50 MW projects usually strike a better balance, and 100 MW plants can be the most efficient on a cost per electricity basis if the reservoir is strong enough. Why geothermal costs so much upfront The economics of geothermal are driven by risk and scale. A developer has to locate the resource, confirm temperature and flow, drill wells, build surface facilities, and connect everything to the grid before a single dollar of revenue is earned. That makes geothermal very different from technologies...

Reviving Lightning Dock: How Zanskar Rebuilt A Failing Geothermal Plant

How an Overlooked Geothermal Plant Got a Second Chance A struggling geothermal power plant in New Mexico has become a case study in what happens when modern subsurface modeling meets a neglected resource. Zanskar’s revival of Lightning Dock suggests that many conventional geothermal sites may still have untapped value if operators can find the right well placement and drilling strategy. Introduction For years, Lightning Dock looked like a classic underperforming geothermal asset: temperatures fell, output weakened, and the plant moved closer to uneconomic operation. But after Zanskar acquired the facility, drilled a deeper well, and applied advanced modeling, the site returned to full capacity and now produces far more electricity than it did before. That turnaround matters because geothermal energy is one of the few clean power sources that can run 24/7. If more existing fields can be repowered instead of abandoned, geothermal could grow faster without relying only on brand-new fronti...

UPLIFT MTD® Micro Turbine Drilling Retrofit, Deep Geothermal Well Enhancement, Cost-Effective Heat Scaling

UPLIFT and MTD®: Unlocking More Heat from Existing Deep Geothermal Wells Deep geothermal must scale rapidly to supply reliable, low-carbon heat for cities and industry. The EU-funded UPLIFT project (Grant agreement ID: 101269511) and Fraunhofer’s Micro Turbine Drilling (MTD®) technology together target one of geothermal energy’s biggest practical barriers: insufficient flow and reservoir contact in drilled wells. By enabling rigless, precision side-drilling inside existing boreholes, MTD® and the UPLIFT consortium aim to increase produced water volumes, reduce exploration risk, and accelerate project timelines, creating a pragmatic pathway to cheaper, more dependable geothermal heat. Why improving existing wells matters for the heat transition Deep geothermal provides baseload, low-carbon heat but project economics hinge on fluid flow and reservoir contact. , Many projects underperform because single boreholes intersect limited permeable zones; drilling new wells is expensive and risky...

Kaishan and Halliburton Boost Geothermal EGS, Green Hydrogen, and Green Ammonia Projects

Kaishan , Halliburton Team Up on Advanced Geothermal, Green Fuel Projects Kaishan Group and Halliburton have deepened their cooperation with a strategic memorandum of understanding centered on advanced geothermal development, especially enhanced geothermal systems (EGS), along with green hydrogen and green ammonia opportunities. The deal builds on earlier Indonesia drilling work and signals a broader push to combine Halliburton’s high-end well-construction capabilities with Kaishan’s geothermal equipment and project-development platform. Partnership Background The relationship did not begin with the July 2026 memorandum. In February 2026, Halliburton said it had won a multiyear contract from KS Orka Renewables , part of Kaishan’s wider corporate group, to support geothermal well construction at the PT Sorik Marapi Geothermal Power and PT Sokoria Geothermal Indonesia projects in Indonesia. That work covered directional drilling, cementing, drilling fluids, and drill bits across several...

Superhot Rock Geothermal Energy and AI Data Centers: The Global Race for Firm Clean Power

Superhot Rock Geothermal: The Countries Racing to Power AI Data Centers and Industry Superhot rock geothermal is moving from a research frontier toward a serious clean-power strategy. The strongest current momentum is in New Zealand, Iceland, Japan, Norway, Italy, and the United States, where international collaboration is already underway and major reports now treat superhot rock as part of the future energy mix . AI is one of the biggest reasons this matters now. Data centers need massive amounts of continuous electricity, and geothermal is attractive because it can provide firm 24/7 power without the intermittency problems that complicate wind and solar for always-on workloads . Why superhot rock matters Superhot rock geothermal refers to geothermal systems that access rock at very high temperatures, often above 400°C, by drilling deep into the subsurface and extracting heat with engineered wells and circulation systems . The basic idea is simple: go deeper, reach hotter rock, and ...

Texas Deep Geopressured Geothermal Permit Advances Long-Duration Energy Storage, Binary Power, and Grid Firming

Texas Issues Second Deep Geopressured Geothermal Permit, What it Means for U.S. Geothermal Development The Texas Railroad Commission (RRC) issued its second permit for a deep geopressured geothermal well in July 2026, approving Quidnet Energy Deployment LLC to drill a geothermal energy storage well in Galveston County. This permit follows the RRC’s first deep geopressured authorization in February 2025 for Sage Geosystems in Atascosa County. Together, these approvals mark a meaningful step in Texas’s pivot from traditional fossil-fuel regulation toward enabling novel subsurface energy technologies, leveraging decades of oil and gas oversight to manage drilling, completion, and subsurface engineering risks. This article explains geopressured geothermal fundamentals, why Texas matters, technical and environmental considerations, market and policy implications, and what to watch next for developers and stakeholders. What is Deep Geopressured Geothermal? Deep geopressured geothermal syste...