Infrastructure designed around compute density.
A phased energy strategy is being advanced to support high-density AI and HPC requirements with resilience, flexibility, and disciplined capacity growth.
Power · Water · Hyperscale AI infrastructure
Fibernet is advancing a three-story flagship data center vision within a power-first campus—integrating high-density compute, resilient energy, carrier-grade connectivity, and atmospheric water generation.
Fibernet is building toward the intersection of power availability, high-density cooling, water resilience, expandable land, and carrier-grade connectivity—the constraints that increasingly define where AI can grow.
A phased energy strategy is being advanced to support high-density AI and HPC requirements with resilience, flexibility, and disciplined capacity growth.
The Florida development thesis prioritizes expandable land, modular delivery, hardened construction, and a master plan that can evolve with customer demand.
A modular atmospheric water generation concept adds a local, climate-responsive source to a broader closed-loop, reclaim, and stormwater strategy.
The platform is being shaped around diverse fiber, cloud and telecom interconnection, satellite integration, and the global traffic patterns that advanced compute demands.
The flagship concept brings compute, energy, water, network, security, and operational infrastructure into one coordinated environment. Delivery is intended to advance in phases as infrastructure and customer requirements are verified.

A three-story flagship vision designed for efficient campus growth.
Modular development intended to align capacity with verified demand.
A Florida-ready resilience strategy subject to final engineering.
Long-horizon planning for additional infrastructure and compute capacity.
Fast-start aeroderivative power
The power strategy evaluates fast-start aeroderivative generation, combined-cycle efficiency, grid integration, and energy storage as coordinated layers of campus resilience.
The generation roadmap is being developed for phased, multi-hundred-megawatt growth. Final equipment selection, capacity, fuel strategy, emissions controls, interconnection, and balance-of-plant design remain subject to technical and commercial diligence.
Flexible generation architecture under active technical evaluation.
Planning for greater efficiency through combined-cycle integration.
Grid, on-site generation, renewables, and storage considered as one system.
Infrastructure intended to scale alongside verified customer demand.
“Dual cycle” is presented using the industry term combined cycle. All generation concepts remain preliminary. No equipment manufacturer, utility, fuel supplier, or engineering firm is represented as an investor, project partner, capacity guarantor, or committed provider absent definitive written agreements.
Supplemental water resilience
The campus concept includes a dedicated atmospheric water generation building designed to capture moisture from ambient air, condense it, and condition the resulting water for approved campus uses.
A scalable equipment concept intended to complement the broader water strategy.
Output depends on temperature, humidity, energy, equipment, and operating conditions.
Designed to work with storage, treatment, condensate recovery, and closed-loop systems.
Capture and condense atmospheric moisture on site.
Filter, treat, store, and monitor for each approved use.
Integrate with closed-loop cooling, condensate recovery, and reuse.
Atmospheric water generation is presented as a supplemental resilience strategy. Final production, water quality, permitted uses, storage, treatment, energy demand, and integration must be established through vendor, engineering, environmental, and regulatory diligence. It is not represented as a substitute for required municipal, potable, or fire-protection water service.
One platform. Six critical systems.
The strategy combines data center development, energy infrastructure, advanced cooling, and global connectivity in a single phased platform.
High-density deployment strategy with liquid-cooling readiness.
Grid and behind-the-meter pathways under active technical diligence.
Atmospheric water generation integrated with closed-loop, reclaim, and stormwater planning.
Liquid-cooling readiness and water-conscious heat-rejection concepts for next-generation loads.
Carrier-neutral fiber, satellite, microwave, and international connectivity vision.
A Florida-ready development approach centered on continuity and resilience.
Fibernet’s development model is designed to align capital deployment with diligence, contracted demand, verified infrastructure, and institutional governance.
Advance site, utility, fuel, fiber, environmental, and entitlement diligence.
Align project entities, governance, strategic relationships, and risk allocation.
Advance customer and partner discussions through a controlled diligence process.
Execute the initial phase and expand through demand-led campus development.
Experience spanning internet backbone networks, data centers, satellite systems, finance, and international telecommunications.
Founder & Chief Technology Officer
30+ years across internet backbone, carrier, data center, satellite, and international telecom infrastructure.
Board Member
Decades of data center, satellite, and international infrastructure leadership.
Customers · strategic partners · capital relationships
Detailed site, utility, customer, engineering, and commercial materials are shared only with appropriate parties through a controlled diligence process.