Vellox logo – Florida-based, veteran-owned engineering company developing SpinG™ power and SpinG™ Nexus™ AI infrastructure

FLORIDA BASED
VETERAN OWNED
ENGINEERING
A MORE RESILIENT WORLD

SpinG™ Nexus™

POWER + WATER + MINERALS + DATA = ONE INTEGRATED ECOSYSTEM

Independent AI infrastructure, powered by SpinG™.

From Infrastructure Consumer to Infrastructure Contributor

SpinG™ Nexus™ is Vellox’s vision for a new generation of coastal AI and data-center infrastructure: a coordinated campus designed to produce reliable electricity, secure its own freshwater supply, and convert desalination brine from a disposal challenge into a potential source of useful industrial minerals.

How the SpinG™ Nexus™ Ecosystem Works

Conceptual illustration. Final configuration, capacities, operating performance, and site layout remain subject to engineering, prototype validation, permitting, and site-specific design.

Illustrative Electricity Cost Advantage

  • Illustrative load: 30 MW continuous, about 262.8 million kWh per year
  • Conventional grid at 12¢/kWh: about $31.5 million per year
  • SpinG™ target at 2–5¢/kWh: about $5.3–$13.1 million per year
  • Potential reduction: about $18.4–$26.3 million per year (58%–83%)

Subject to industrial prototype validation.

Illustrative 30 MW continuous-load comparison. The SpinG™ commercial price target and all projected savings remain subject to industrial prototype validation and will vary by site, tariff, utilization, design, and operating conditions.

More Than an Electricity Cost Comparison

This suggests a potential electricity-cost reduction of approximately $18.4–$26.3 million per year, or about 58%–83%, before considering any additional potential value from freshwater sales, mineral recovery, or qualifying environmental attributes.

Important validation statement

SpinG™ projected commercial electricity price: 2–5¢/kWh, subject to validation during industrial prototype testing. The comparison above assumes a continuous 30 MW load and a 12¢/kWh conventional-grid reference. Actual electricity rates, utilization, system performance, and savings will vary by location, tariff, engineering configuration, and operating conditions.

Three Interconnected Platforms

1. SpinG™ Power

At the center of the ecosystem is SpinG™, Vellox’s electrical-generation platform built around the patented and patent-pending Remora™ prime-mover technology. When a Remora™ is coupled to an electric generator, the combined system forms a SpinG™ power unit.
The platform is being developed for reliable, modular, grid-independent electricity generation for AI and data centers, industrial facilities, ports, military installations, and other critical infrastructure. The concept is designed around compact deployment, intelligent control, remote monitoring, self-start capability, and phased expansion as demand grows.

2. SpinG™ Water

Coastal access allows seawater desalination to become part of the campus infrastructure rather than a separate utility dependency. SpinG™ electricity is intended to support reverse-osmosis desalination, while the desalination plant supplies freshwater for data-center cooling and facility use.
Cooling water recirculates within a separate cooling loop. By relying on seawater instead of local freshwater reserves, the campus is designed to reduce competition with communities, protect aquifers, and strengthen drought resilience.

3. SpinG™ Mineral Recovery

Reverse-osmosis desalination produces concentrated brine. In a conventional project, that brine is primarily a disposal obligation. Within SpinG™ Nexus™, it becomes potential feedstock for mineral separation and recovery.

Depending on site chemistry, recovery technology, market conditions, and economic feasibility, potential products may include magnesium compounds, industrial salt, bromine, potassium compounds, boron products, and other useful materials. This platform is intended to reduce brine-disposal impact while supporting domestic mineral supply and new industrial activity.

Dedicated Water Supply & Recirculating Cooling

SpinG™ Nexus™ is designed to integrate seawater desalination with a dedicated water supply for Data & AI infrastructure. Desalinated water would be treated to the quality required for cooling-system makeup and other facility needs.

Within the data center, cooling water would circulate through a separate cooling loop, transferring heat to the selected heat-rejection system and returning for reuse. Makeup water would replace losses where required by the cooling design.

The concentrated brine produced by desalination would remain separate from the cooling loop and could be directed to a mineral-recovery process, subject to technical, economic and environmental evaluation.

Final water demand, treatment requirements and cooling performance would depend on site conditions, the selected cooling technology and engineering validation.

One campus. Multiple sources of value.

Electricity for mission-critical computing • Freshwater for cooling and local use • Potential industrial products from brine • Potential environmental attributes where applicable

A Coordinated Operating Loop

The proposed campus coordinates power generation, water production, computing and potential mineral recovery. Shared planning and controls would match these activities to facility demand, maintenance requirements and site conditions.

A New Infrastructure Model

SpinG™ Nexus™ brings power, water and Data & AI infrastructure into one coordinated campus concept. Its development would proceed from validated power technology to an integrated demonstration and phased deployment, with potential benefits for surrounding industries and communities evaluated for each site.

Designed for Resilience and Regional Value

Reliable, locally produced electricity for critical infrastructure

Reduced exposure to grid constraints, transmission losses, and fuel-supply disruptions

Lower demand on municipal freshwater systems and coastal aquifers

Potential beneficial use of desalination brine

Modular development that can expand in phases

Potential construction, technical, manufacturing, and permanent operating jobs

Support for U.S. manufacturing and regional supply-chain development

A Modular Path to Deployment

SpinG™ Nexus™ is intended to advance through disciplined, verifiable stages. Technology validation comes first, followed by an industrial prototype, an integrated demonstration, and then phased commercial deployment. This sequence allows technical performance, safety, certification requirements, operating economics, and environmental considerations to be evaluated before large-scale rollout.

STAGE 01

Technology Validation

Validate the Remora™ and SpinG™ platform under controlled industrial-prototype conditions.

STAGE 02

Integrated Demonstration

Demonstrate coordinated operation of power generation, data-center support, desalination, water reuse, controls, and brine management at an appropriate scale.

STAGE 03

Commercial Deployment

Develop modular campuses that can add capacity in phases and adapt to local data, water, mineral, permitting, and community requirements.

Built Around American Innovation

Vellox is developing SpinG™ Nexus™ around a U.S.-manufacturing strategy that emphasizes Florida-based production, domestic assembly, advanced control electronics, skilled workforce development, and resilient supply chains. The objective is not only to supply new infrastructure, but also to strengthen the industrial capability required to build and support it.

Vellox combines long-term technology development, an expanding intellectual-property portfolio, university collaboration, industrial relationships, and veteran-led leadership. This foundation supports a practical progression from prototype validation to scalable infrastructure.

DON'T COMPETE FOR LOCAL RESOURCES
ADD TO THEM

Instead of competing with a community for scarce electricity and freshwater resources, SpinG™ Nexus™ is designed to generate the power and produce the water required by Data & AI infrastructure—with modular capacity that can expand as demand grows.

Where technically, commercially and regulatorily appropriate, additional capacity could potentially support surrounding industries and communities, reducing pressure on existing power grids, municipal water systems and freshwater reserves.