© James P.S. Case, 2025. All rights reserved.
Abstract:
Current datacenters and other high thermal load's cooling strategies typically rely heavily on evaporative towers and intermittent HVAC cycles, which create inefficiencies in heat rejection and water use. This concept introduces a innovation in hybrid geothermal-hydraulic cooling and thermal storage system that leverages subsurface heat dissipation, vapor recovery, and reinjection for sustainable thermal management.
Key innovations include either in combination or separately:
Permeable downhole conduits for secondary rH or vapor control and/or heat management, optimizing soil thermal conductivity through controlled moisture throughout the thermal zone.
Pressurized or otherwise vapor controlled design for vapor collection and condensation, coupled with air-accessible radiators for condensation and reinjection to maintain hydraulic efficiency and air temperature interaction efficiency. This can include heat pump integration and simi-controlled vapor release release for maximum efficiency.
Corrosion mitigation along the structure via semi-alternating or direct current cathodic protection combined with accessable sacrificial anodes for long-term reliability.
Maintenance friendly full protection of the closed loop primary thermal fluid system for maintenance reduction.
Optional cooling tower or cooling pond or other thermal interface structure integration for peak load redundancy and/or to take advantage of peak atmospheric conditions.
Unlike conventional systems, this design minimizes water loss, improves energy efficiency, and reduces environmental impact while addressing corrosion challenges inherent in high-moisture environments.
© James P.S. Case, 2025. All rights reserved.
First Publication Notice: This concept is published for intellectual property protection and professional discussion.
