For unusual site conditions, demanding thermal requirements or nontraditional deployment constraints, TIP evaluates specialized concepts and their practical engineering and economic implications.
01
Immersion Cooling Feasibility
Engineering activities
Evaluate single-phase and two-phase immersion approaches.
Assess workload and server compatibility.
Compare fluid handling, thermal performance, maintenance, and operational requirements.
Evaluate heat exchanger and heat-rejection options.
Compare total infrastructure costs against liquid-cooled alternatives.
Deliverables
Technology feasibility report.
Preliminary system architecture.
Vendor and compatibility evaluation framework.
CAPEX/OPEX comparison.
02
Waste Heat Recovery & Reuse
Engineering activities
Characterize available heat loads and temperature levels.
Identify nearby thermal demand such as swimming pools, commercial pools, industrial processes, and building heating.
Evaluate heat pumps, heat exchangers, distribution loops, and thermal storage.
Estimate useful heat output and seasonal utilization.
Compare avoided heating costs against recovery-system investment and pumping energy.
Deliverables
Heat-reuse feasibility study.
Preliminary thermal integration concept.
Heat-demand and supply matching analysis.
Economic assessment with sensitivities.
Recovered heat is useful only where demand, temperature, distance and operating schedule are compatible.
03
Floating Data Centers & Barge Infrastructure
Engineering activities
Preliminary site and waterbody feasibility.
Mooring, access, and environmental constraint screening.
Cooling-water and heat-rejection concept evaluation.
Utility, connectivity, and power supply dependency assessment.
Modular infrastructure and deployment sequencing review.
Preliminary permitting pathway and operational risk analysis.
Deliverables
Concept feasibility report.
Infrastructure dependency map.
Preliminary cooling and utility architecture.
Risk and next-stage engineering requirements.
04
Offshore & Seawater Cooling
Engineering activities
Seawater intake and discharge feasibility screening.
Preliminary hydraulic and heat exchanger requirements.
Corrosion, fouling, filtration, and maintainability considerations.
Environmental discharge constraints.
Marine infrastructure and pumping energy assessment.
Comparison with conventional heat-rejection systems.
Deliverables
Preliminary technical feasibility study.
Intake and discharge concept.
Heat-rejection alternatives comparison.
Environmental and permitting risk register.
05
Alternative Power & Wave-Powered Infrastructure
Engineering activities
Screen alternative energy concepts against actual IT load and availability requirements.
Evaluate grid integration and backup power dependencies.
Assess intermittency, energy storage, and reliability implications.
Estimate power delivery costs and infrastructure requirements.
Identify what requires pilot validation before commercial deployment.
Deliverables
Concept feasibility assessment.
Energy supply scenario comparisons.
Preliminary reliability and integration review.
Recommended validation roadmap.
Wave-powered computing remains experimental. Pilot validation and a credible reliability strategy are essential; it is not assumed to be a proven, dependable power source.
Test the concept against the project.
Compare specialized options with conventional alternatives. Formal marine, environmental and permitting studies are performed with appropriately qualified specialists.