Tajogaite Energía and INVOLCAN Join Forces to Explore La Palma’s Geothermal Potential Tajogaite Energía S.L. has taken a significant step toward assessing the geothermal potential of La Palma by formalising an agreement with the Canary Islands Volcanological Institute (INVOLCAN). The agreement covers surface geothermal exploration and research across 19 mining grids awarded to the company by the Government of the Canary Islands, with a total value of €387,698.50. The initiative does not yet mean that a geothermal power plant will be built or that deep drilling will begin immediately. Instead, it represents an essential early phase: using advanced scientific methods to understand what lies beneath the island’s surface and identify the areas with the greatest potential for future geothermal development. A Strategic Agreement for Canary Islands Energy The collaboration between Tajogaite Energía S.L. and INVOLCAN forms part of the public tender process launched by the Canary Islands Govern...
Singapore Tests the Limits of Geothermal Possibility
By: Robert Buluma
On 28 April 2026, the (EMA) announced a Request for Proposal (RFP) for a nationwide feasibility study into geothermal energy deployment. At face value, this might seem routine—another government exploring another renewable energy source.
But this is not routine.
Singapore is not , nor , nor with its . It is a dense, urban, non-volcanic island with no obvious geothermal pedigree.
Which raises a deeper question:
Why is Singapore even considering geothermal energy?
The answer lies not in traditional geology—but in a technological shift that is quietly redefining what geothermal energy means.
Not a Drilling Project—A Strategic Probe into the Subsurface
The EMA study is not about immediate drilling. It is not a confirmation of geothermal reserves. It is something far more strategic.
At its core, the study is designed to answer three defining questions:
- Can geothermal energy be engineered in Singapore’s geology?
- Can it be deployed safely beneath a dense urban environment?
- Can it compete economically with existing energy sources?
This is not exploration in the traditional sense. It is a national-level experiment in possibility.
The selected consultant will evaluate advanced geothermal technologies, map subsurface conditions, assess environmental risks, and propose regulatory frameworks. In effect, Singapore is building a blueprint—not just for geothermal deployment, but for decision-making under uncertainty.
Why Singapore Was Never “Supposed” to Have Geothermal
Conventional geothermal systems depend on a rare geological combination:
- High underground temperatures near the surface
- Natural reservoirs of hot water or steam
- Permeable rock formations
- Tectonic or volcanic activity
That is why geothermal power thrives in places like and the .
Singapore has none of these.
It sits on stable crust. No volcanoes. No obvious hydrothermal systems. No steaming vents or geysers.
For decades, the conclusion was simple:
No geothermal here. Move on.
But that conclusion is now outdated.
The Quiet Revolution: Engineering Heat Where Nature Didn’t Provide It
The real story behind Singapore’s move is the rise of next-generation geothermal systems—technologies that do not rely on naturally occurring reservoirs.
1. Enhanced Geothermal Systems (EGS)
EGS targets hot, dry rock deep underground. Engineers create fractures, inject fluid, and extract heat—effectively building an مصنوع geothermal reservoir.
2. Closed-Loop Systems
These systems circulate fluid through sealed underground pipes, absorbing heat without interacting with groundwater. They are modular, controlled, and far more adaptable to urban settings.
3. Advanced Drilling Technologies
Innovations in high-temperature drilling and subsurface imaging now allow access to deeper, hotter formations once considered unreachable.
4. Superhot Rock Geothermal
A frontier concept targeting الصخور above 400°C, where energy output per well could dramatically exceed conventional systems.
Together, these technologies redefine geothermal from a location-dependent resource to a technology-enabled opportunity.
And that is exactly what Singapore is testing.
Singapore’s Energy Reality: A Constraint-Driven Strategy
Singapore’s energy system is shaped by constraints:
- No domestic fossil fuel reserves
- Limited land for large-scale renewables
- High electricity demand density
- Strong decarbonisation commitments
Today, natural gas dominates its energy mix. While efficient, it exposes the country to price volatility and long-term carbon pressures.
So Singapore is diversifying.
Its strategy increasingly resembles a multi-pathway system:
- Solar (rooftop and floating installations)
- Regional electricity imports
- Hydrogen integration
- Carbon capture and storage
- And now, geothermal exploration
What makes geothermal compelling is not just its low emissions—but its reliability.
Unlike solar or wind, geothermal offers:
- 24/7 baseload power
- Minimal land footprint
- Long operational life
- Independence from weather variability
If it works, it becomes a stabilising backbone in a constrained energy system.
Inside the EMA Feasibility Study
The scope of the study is broad, technical, and deeply interdisciplinary. It is expected to focus on four key areas:
1. Subsurface and Geological Assessment
Using advanced geophysical tools, the study will map:
- Deep temperature gradients
- Rock composition and stress fields
- Heat flow anomalies
- Feasibility of deep drilling targets
This builds on earlier non-invasive surveys conducted across .
2. Technology Suitability Analysis
Not all geothermal systems are equal. The study will evaluate:
- Depth requirements for different technologies
- Feasibility of drilling in urban environments
- Heat extraction efficiency
- Surface infrastructure constraints
The key question here is simple but profound:
Can geothermal systems function without traditional reservoirs?
3. Environmental and Safety Evaluation
In a dense city, subsurface activity carries risks. The study will examine:
- Induced seismicity (micro-earthquakes)
- Ground stability impacts
- Groundwater contamination risks
- Urban infrastructure interactions
Geothermal energy may be clean—but it is not risk-free.
4. Economic and Commercial Viability
Ultimately, economics will decide everything. The study will assess:
- Capital costs (especially drilling)
- Operational costs over time
- Cost per kilowatt-hour
- Investment risk models
- Private sector participation
Geothermal projects often fail not because they are impossible—but because they are too expensive relative to alternatives.
A Broader Energy Shift: From Dependence to Resilience
The geothermal study is not an isolated initiative. It reflects a deeper transformation in Singapore’s energy philosophy.
The country is moving from:
Single-fuel dependency → diversified energy resilience
Geothermal fits into this model as a potential baseload anchor—a role that intermittent renewables cannot fully play alone.
Why the World Is Watching
Singapore’s geothermal exploration has implications far beyond its borders.
If successful, it would prove that:
- Geothermal energy is not limited to volcanic regions
- Urban geothermal systems are technically feasible
- Engineered subsurface energy can redefine geography
This would validate years of work by companies developing next-generation geothermal technologies—and potentially unlock new markets worldwide.
It could accelerate investment in:
- Deep drilling innovation
- AI-driven subsurface modelling
- High-temperature materials
- Digital geothermal simulations
In essence, Singapore could become a global testbed for urban geothermal systems.
The Reality Check: High Risk, High Uncertainty
For all the excitement, the risks are real:
- Geological uncertainty: Heat may exist—but not in usable forms
- High upfront costs: Deep drilling is expensive and risky
- Technical complexity: Urban environments demand precision
- Long timelines: Projects can take years before producing power
- Economic competition: Natural gas remains cost-effective
This is not a guaranteed success story.
It is a calculated risk.
Policy: The Invisible Enabler
One of the most strategic aspects of the EMA RFP is its focus on policy frameworks.
Singapore is not just studying geology—it is preparing for:
- Licensing systems for geothermal exploration
- Environmental permitting structures
- Risk-sharing mechanisms
- Public-private partnerships
- Market integration strategies
Because even if the technology works, deployment depends on governance.
What Comes Next
The roadmap is clear:
- RFP submissions due by June 2026
- Consultant selection within the year
- Study execution over multiple phases
From there, three scenarios emerge:
- No viable potential → geothermal is shelved
- Limited potential → further research and pilots
- Strong viability → move toward demonstration projects
Each path reshapes Singapore’s energy future in different ways.
Conclusion: A Bet Beneath the Impossible
Singapore’s geothermal initiative is not about certainty.
It is about testing the boundaries of what is possible.
For decades, geothermal energy was defined by geography. You either had it—or you didn’t.
Now, technology is challenging that assumption.
And Singapore, a nation built on overcoming constraints, is asking a bold question:
What if heat beneath the Earth is not just discovered—but engineered?
The answer remains unknown.
But in energy innovation, the act of asking that question is often where transformation begins.
See also:Poland Drills Deep to Unlock Low Temperature Geothermal Future
Source: EMA
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