Designed to support what cities need next.

A vertical platform may create new pathways to use the Earth’s heat for electricity, district-scale heating and cooling, and other thermal requirements. Unlike weather-dependent generation, geothermal resources may support continuous operation where local geology and system performance are suitable.

Early work centers on validating thermal transfer, fluid circulation, structural performance, and long-term operating assumptions across representative depth and geology cases.

Application development would advance through engineering studies, site characterization, specialist partnerships, and phased pilot validation.

Computing infrastructure is increasingly constrained by land, power, cooling, and resilience requirements. A purpose-designed subsurface environment could potentially bring protected computing space, thermal management, and energy systems together within one coordinated platform.

Relevant validation areas include heat rejection, humidity and air management, service access, electrical distribution, physical security, connectivity, and operational continuity.

Any data-center application would be developed with experienced computing, mechanical, electrical, and network-infrastructure partners.

Cities need more resilient approaches to water treatment, storage, distribution, and — in appropriate coastal settings — desalination. Shared subsurface infrastructure could potentially protect critical components while reducing their surface footprint.

Water quality, aquifer protection, corrosion, pressure management, treatment energy, maintainability, and regulatory compliance would be fundamental design requirements.

Development would require site-specific hydrology, public-utility collaboration, environmental review, and dedicated water-engineering expertise.

As renewable generation expands, cities need ways to shift energy across hours, days, and potentially longer periods. A vertical subsurface platform could potentially host thermal or other storage systems close to the infrastructure they support.

Candidate systems would be evaluated for efficiency, cycling behavior, safety, containment, service life, integration requirements, and compatibility with the core platform.

The most promising approaches would progress through comparative analysis, digital modeling, technology partnerships, and controlled pilot programs.

Extreme weather, wildfire, conflict, and other disruptions expose the vulnerability of surface systems. Carefully designed subsurface facilities may offer physical protection for selected infrastructure that communities depend on during emergencies.

Safety, access, egress, ventilation, communications, redundancy, emergency operations, and applicable building and security standards would guide every configuration.

Potential projects would be developed with public agencies, infrastructure operators, emergency-planning specialists, and appropriate regulatory authorities.