A distributed, modular nearshore data-campus concept: compute at the core, OEE Clusters at the edge, and validation before scale.
Why OEE-DCC
Digital infrastructure designed with its marine utility edge.
OEE-DCC is the lead story: a distributed nearshore campus architecture that places high-density compute at the centre and modular OEE-Cluster infrastructure around it.
Modular by design
A campus can be configured and validated in bounded modules before any scale-up decision.
Nearshore context
The concept is intended for coastal or protected-water settings where access, resilience, cooling and utility integration can be evaluated together.
Compute at the core
The central campus remains the digital load and operational focus; edge infrastructure is designed around its measured needs.
Clusters at the edge
OEE Clusters form the offshore marine-energy and Power-to-Carrier infrastructure backbone, subject to staged engineering proof.
How the Petal Campus Works
One core. Five petals. Twenty harvesting modules.
The reference configuration uses five petals around a central compute core. Each petal is conceived with four Hyper Shuttle harvesting modules—twenty modules across the campus concept.
OEE-Cluster Energy Backbone
The marine-energy and P2C infrastructure layer.
OEE-Cluster is conceived as the offshore backbone at each petal—hosting marine-energy conversion and the infrastructure needed to condition, route and use output around the campus.
Power-to-Carrier pathways are conditional design options, not present operating claims. Their role depends on measured energy availability, site conditions, safety, offtake and economics.
Target 1–2 MW Modular Campus Strategy
A planning target, not a claim of achieved output.
The 1–2 MW-class campus is a design target for a five-petal / twenty-module configuration. Reaching that range would require approximately 50–100 kW of net average electrical output per module.
Validation Pathway
Evidence before scale.
TPG is seeking partners to turn the concept into a measured engineering programme with explicit gates.
System model
Define site conditions, resource inputs, loads, interfaces, losses and an auditable energy balance.
Subsystem testing
Characterize Hyper Shuttle mechanics, conversion efficiency, controls, durability and parasitic demand.
Marine pilot
Test a bounded OEE-Cluster configuration under representative nearshore conditions and duty cycles.
Independent validation
Use third-party measurement to determine credible net output, reliability, economics and scale-up readiness.
Partners Sought
Build the evidence base with us.
Data-centre operators
Load profiles, resilience requirements, thermal strategy and deployment criteria.
Marine engineering
Naval architecture, mooring, survivability, maintainability and nearshore operations.
Energy conversion
PTO, generation, power electronics, storage, controls and grid interfaces.
Research & test facilities
Numerical modelling, tank testing, instrumentation and independent measurement.
Infrastructure developers
Site integration, permitting, logistics, utility interfaces and phased deployment.
Strategic capital
Validation-led financing aligned to technical gates rather than unverified projections.
TPG Cleantech · SWITCH 2026 Singapore
Explore the OEE-DCC validation programme.
If your organisation can help test, integrate, host, measure or finance a bounded pilot, we would welcome a focused technical conversation.