PATENT PENDING SYSTEM ARCHITECTURE: TRS-V1

Scalable. Dispatchable.
Aseismic Base Load.

Tellier Dynamics architected Radial Closed-Loop Geothermal Systems. By synthesizing the reservoir contact area of EGS with the environmental safety of conductive loops, the TRS architecture enables clean, continuous power without induced seismicity.

View Architecture Read Report (SGP-TR-230) View Presentation Slides
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The Telluric Radial System™ (Patent Pending)

Existing closed-loop systems typically utilize parallel "U-loop" arrays. While effective in specific geologies, these parallel designs can suffer from increased thermal interference where the heat extraction of one lateral degrades the performance of its proximal neighbor.

The TRS Topology utilizes a central large-bore insulated injection hub feeding a distributed network of radially oriented production satellites. This diverging geometry maximizes the volume of rock accessed per meter of drilling, significantly delaying the thermal drawdown compared to packed parallel arrays. Downhole Isolation Nodes enable incremental scaling and capital deployment.

  • Closed-Loop System
  • No Hydraulic Fracturing
  • Passive Flow Via Thermosiphon Effect
FIG 1.0 - RADIAL TOPOLOGY

Diverging lateral geometry reduces thermal interference common in parallel stacked arrays.

Modeled Performance

Source: OpenGeoSys 3D FEA Simulation (SGP-TR-230)

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Thermal Performance Graph
FIG 2.0 - THERMAL EVOLUTION

Comparative thermal drawdown analysis showing stabilized output temperature retention over the 30-year operational lifecycle.

+5°C Thermal Delta → +2MW Power Gain

Simulations normalized for drilling length demonstrate that radial fanning maintains outlet temperatures 2°C to 5°C higher than equivalent multi-lateral stacked designs.

Extended Lifespan

The geometry prevents the formation of concentrated cold zones in the rock matrix, supporting a productive operational lifespan of >30 years with a shallower thermal decline curve than existing layouts.

160°C+
Target Rock Temp
3.35 W/mK
Simulated Conductivity
0.0
Seismic Risk
Live-Expansion Protocol

Funding the future
from cash flow.

Traditional geothermal typically requires 100% of CAPEX deployment before the first kilowatt is sold. TRS changes the equation. By bringing independent satellites online sequentially, the architecture is designed to enable revenue generation as early as Month 6, funding subsequent expansion phases from operating income.

Targeted First Power
T + 0.5 Years*

Projected early revenue start vs. industry standard T+2.0y construction delay.

Projected CAPEX Efficiency
~50% Reduction*

Modeled reduction in initial capital at risk prior to reservoir validation.

*Projections based on TRS-V1 simulation data comparing phased radial deployment against standard parallel array construction baselines. Actual results may vary based on local geology and drilling conditions.

Phased Scaling Power Output Graph

Figure 3.0: Modeled thermal power output. The TRS protocol is designed to secure cash flow 18 months earlier than the conventional closed-loop baseline.