Offshore infrastructure, reconsidered

Compute infrastructure, built for the ocean.

Offshore Compute Systems develops modular, marine-engineered data centers designed for deployment on existing offshore and maritime infrastructure — bringing compute to power and water instead of the other way around.

Photorealistic view of modular compute containers installed on an offshore platform deck, with cranes, ocean, and sky in the background.
CONCEPT RENDERING — GULF OF MEXICO PLATFORM CLASS NOT TO SCALE
01

Power

Integrate with existing generation, fuel gas, or dedicated generation systems.

02

Cooling

Closed-loop liquid cooling with seawater heat rejection.

03

Connectivity

Offshore fiber, microwave, and redundant communications.

04

Modularity

Deploy incrementally from pilot-scale systems to multi-megawatt facilities.

The problem

Compute demand is outrunning where infrastructure can go.

Growth in AI and high-performance computing requires enormous amounts of power and physical infrastructure. Conventional data-center development increasingly runs into constraints that have little to do with the compute itself.

  • Utility interconnection constraints
  • Land requirements
  • Electrical infrastructure lead times
  • Cooling requirements
  • Permitting complexity
  • Transmission constraints

Bring compute to existing energy and maritime infrastructure, rather than bringing all infrastructure to compute.

Offshore Compute Systems is exploring a different infrastructure model — not a claim that offshore siting eliminates these constraints, but that it changes which ones apply.

Deployment models

A defined path from prototype to platform.

Each stage is designed to validate the next before scale increases.

STAGE 1

Marine Prototype

~4 GPUs
  • Demonstrate marine operation
  • Validate cooling
  • Test corrosion protection
  • Test remote management
  • Test connectivity
  • Collect environmental & operational telemetry
STAGE 2

Commercial Pilot

50–100 kW
  • First offshore commercial deployment
  • Real customer workloads
  • Validate uptime & maintenance model
  • Establish offshore operating procedures
STAGE 3

Commercial Platform

1–5 MW
  • AI inference & training
  • High-performance computing
  • Scientific computing
  • Energy-industry workloads
For offshore operators

Create new value from offshore infrastructure.

Offshore Compute Systems is evaluating ways to install modular compute systems alongside existing offshore operations — without disrupting them.

DECK SPACEMonetize underutilized deck space
GENERATIONMonetize spare generation capacity
FUEL GASCreate demand for available fuel gas
REVENUEGenerate infrastructure hosting revenue
ASSET LIFEIntroduce another productive use for mature assets
OPTIONALITYPotentially create options for infrastructure reuse later in field life

Compute hosting does not automatically extend lease life or eliminate decommissioning obligations. Any post-production arrangement is evaluated on its own regulatory and commercial merits.

Concept diagram of OCS compute modules integrated onto an offshore jackup platform, alongside living quarters, a crane, and a drilling derrick, with battery storage, a power skid, a heat exchanger, and seawater intake/discharge shown tying into the rig's existing infrastructure.

Conceptual illustration of a jackup-platform integration — layout and dimensions shown are illustrative only, not a specification for any particular deployment.

ONE PLATFORM, TWO OPERATIONS

Oil & Gas Operations

Operated by the platform owner. Petroleum operations remain fully separate and unaffected.

Compute Operations

Operated by Offshore Compute Systems. Independent power tie-in, cooling, and network path.

Possible commercial structures include a fixed annual hosting payment, a power purchase agreement, a fuel-gas agreement, a revenue share, a joint venture, or a long-term site agreement — structured around what fits the asset and the operator.

For maritime & research institutions

A collaborative marine engineering and compute research platform.

Built for maritime academies and research institutions.

COMPUTEAccess to GPU compute for coursework and research
PROJECTSStudent & capstone projects
RESEARCHMarine engineering, thermal systems, electrical, corrosion, cybersecurity, networking, AI & HPC
PEOPLEInternships and operational telemetry access
PILOT STRUCTURE

Institution provides

  • Waterfront space
  • Reasonable access
  • Power connection
  • Potential seawater access
  • Faculty / student participation

OCS provides

  • Compute hardware
  • Cooling system
  • Marine enclosure
  • Installation & maintenance
  • Monitoring & engineering support
  • Allocated GPU capacity for research
Platform reuse

One possible evolution for offshore infrastructure.

Any post-production reuse would require regulatory approvals and appropriate commercial arrangements — this is a conceptual trajectory, not a commitment on any specific asset.

TODAY

Active energy asset

Platform operates in standard oil & gas production service.

→
NEAR TERM

Hybrid energy + compute asset

Compute modules operate alongside ongoing production, using spare capacity.

→
POTENTIAL FUTURE

Compute-focused infrastructure

Late-life or decommissioned structures potentially repurposed, subject to regulatory approval.

Technology

The subsystems, briefly.

Compute SYS.01

Modular GPU servers designed to support current and future accelerator generations — not tied permanently to a single hardware platform.

Cooling SYS.02

  • Closed-loop direct-to-chip / liquid-cooled architecture
  • Secondary seawater heat exchanger
  • Redundant pumps
  • Marine-grade materials

Power SYS.03

  • Existing offshore generation
  • Fuel-gas generation
  • Dedicated natural-gas generation
  • Shore power where available
  • Batteries / UPS for ride-through & controlled shutdown

Networking SYS.04

  • Primary subsea fiber where practical
  • Microwave or secondary fiber redundancy
  • Satellite for management / fallback

Marine Engineering SYS.05

  • Corrosion protection
  • Salt-air isolation
  • Vibration
  • Humidity control
  • Hurricane conditions
  • Fire suppression
  • Hazardous-area separation
  • Remote monitoring
  • Structural integration
About

Built by Maritime Academy graduates.

ZB
CO-FOUNDER

Zach Bianchi

Maritime Academy graduate with prior offshore oil & gas experience, including work involving Shell’s Auger platform and the Transocean Deepwater Poseidon. Currently works in energy infrastructure and battery-energy-storage-system supply chains.

LinkedIn ↗
MA
CO-FOUNDER

Michael Aras

Maritime Academy graduate with a background in data analysis, software development and architecture, automation, power-generation systems, and remote diagnostics — building and maintaining enterprise software platforms.

LinkedIn ↗
MARITIME OPERATIONS+OFFSHORE ENERGY+POWER SYSTEMS+SOFTWARE+COMPUTE INFRASTRUCTURE
Partners

We are seeking partners across:

Offshore operators Maritime institutions Research organizations GPU & server suppliers Cooling technology companies Subsea connectivity providers Power-generation suppliers EPC & offshore engineering firms AI companies Compute customers
Contact

Build with us offshore.

Tell us who you are and what you’re working on. We respond to every serious inquiry.


    Offshore operatorMaritime / research institutionCompute customerTechnology partnerInvestorOther