MAG-LEV Wind Turbine

The wind turbine reinvented.
Powered by magnetic levitation.

Friction-free. Silent. Grid-independent. EMP-resistant. Deployable in under one week. Full-scale 2.2 mW commercial unit in production โ€” targeted for Q1 2027.

2.2 mW Output per unit
<1 Week Installation per unit
0 dB Operational noise
5 Smaller-scale prototypes validated
The Design

Where magnetic levitation meets composite materials.

The Sylentra turbine is the product of two converging breakthroughs โ€” brought together into a single system that performs where conventional turbines cannot.

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Magnetic Levitation

The rotor floats on a magnetic field โ€” eliminating mechanical bearing friction entirely. This is the primary source of energy loss, noise, maintenance cost, and mechanical wear in every conventional turbine ever built. Gone.

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Composite Construction

Blades built from our proprietary composite material โ€” 10ร— stronger and 94% lighter than steel equivalents. This enables blade geometries previously impossible to engineer and manufacture, capturing energy at wind speeds that stall conventional designs.

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Vertical Axis Design

The vertical axis (VAWT) configuration captures wind from any direction without yawing โ€” ideal for urban and campus environments where wind is turbulent and unpredictable. Compact cylindrical form fits where conventional turbines cannot.

Performance Specifications

Output per unit 2.2 mW
Installation time Under 1 week
Operational noise Silent
Grid dependency None
EMP resistance Yes
Design type Vertical axis (VAWT)
Scalability Fully modular
Sylentra MAG-LEV turbine spinning at sunset on rooftop

Sylentra MAG-LEV turbine โ€” operational, rooftop deployed, captured at sunset.

MAG-LEV turbine blade assembly โ€” internal engineering visible

Assembly stage โ€” vertical blade structure and magnetic hub

Sylentra MAG-LEV turbine installed against blue sky

Installed and operational โ€” vertical axis design

MAG-LEV turbine on school rooftop with sports field below

School rooftop โ€” sports field directly below

Sylentra MAG-LEV turbine operating at night, 2018

All-weather operation โ€” January 2018

From assembly to deployment: the engineering journey from internal structure to operational rooftop installation, validated in all conditions since 2018.

Advantages

What magnetic levitation changes.

Removing bearing friction from a wind turbine doesn't just make it quieter โ€” it changes the fundamental economics, deployment constraints, and reliability profile of the entire system.

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Silent Operation

No mechanical contact means no mechanical noise. The Sylentra turbine produces zero operational sound โ€” enabling installation adjacent to offices, homes, hospitals, and urban data centers where conventional turbines are prohibited.

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Grid Independence

Designed to operate as a standalone power system, fully independent of the national grid. Provides continuous clean power regardless of grid status โ€” including during outages, extreme weather, and infrastructure attacks.

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EMP Resistance

A critical advantage for national security applications. When a grid-disrupting EMP event disables conventional power infrastructure, Sylentra turbines continue operating โ€” providing uninterrupted power to data centers, hospitals, and command facilities.

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Minimal Maintenance

Magnetic levitation eliminates the bearings, gearboxes, and friction-based components that account for the majority of conventional turbine maintenance costs and downtime. Dramatically lower lifecycle cost of ownership.

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Low Wind Speed Performance

Without the mechanical friction threshold required to initiate rotation, the MAG-LEV turbine begins generating power at wind speeds that stall conventional designs. Productive across a far wider range of conditions.

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Modular Scalability

Each 2.2 mW unit is self-contained and independently operational. Deploy one unit or one hundred โ€” each installed in under a week. Scale to exactly the capacity required, when required.

The Complete System

Composite structure + MAG-LEV turbine. One unit.

The Sylentra system integrates both technologies into a single deployable unit โ€” a composite modular structure with the MAG-LEV turbine mounted directly on top. Self-contained. Grid-independent. Deployable anywhere in the world.

Sylentra integrated system โ€” composite unit with MAG-LEV turbine, field deployment

Unit 1 โ€” deployed in the field

Sylentra integrated system โ€” second unit deployed outside industrial facility

Unit 2 โ€” commercial facility deployment

Full-scale MAG-LEV turbine being crane-loaded onto flatbed with composite modular unit

Deployment day โ€” full-scale turbine crane-loaded onto transport with composite unit. Scale confirmed.

Two separate integrated units deployed at different sites. The crane shot shows full-scale deployment logistics โ€” this is a real, large-format system actively being moved and installed.

Deployment Economics

The numbers for investors and operators.

Based on validated design specifications: each 100,000 sq ft of facility produces 2.2 mW/day of power. Every $50M funds 300,000 sq ft of production capacity โ€” generating approximately 160โ€“200 mW per month.

Capital Investment Facility Size Daily Output Monthly Output Approx. Timeline
$50M 300,000 sq ft 6.6 mW/day 160โ€“200 mW/month ~3โ€“4 months
$100M 600,000 sq ft 13.2 mW/day 350โ€“400 mW/month ~4โ€“6 months
$200M 1,200,000 sq ft 26.4 mW/day ~700โ€“800 mW/month ~6โ€“9 months

*Based on 2.2 mW output per 100,000 sq ft of facility ร— 30 days. Facility building costs not included in capital figures. Commercial deployment targeted Q1 2027.

Primary Application

The resilience infrastructure America's data centers need.

Data centers are the backbone of the digital economy. They require uninterrupted power โ€” and they are acutely vulnerable to grid disruption, extreme weather, and EMP events.

The Sylentra MAG-LEV turbine was designed for exactly this application. Silent enough to install adjacent to urban facilities. Grid-independent by design. EMP-resistant. Scalable to any power requirement.

And deployable โ€” in under one week per unit. Not years. Not months. Weeks.

Investment Details โ†’

๐Ÿ’พ Data Centers

Grid-independent primary or backup power. Silent campus deployment. EMP-protected.

โœˆ๏ธ Airports

Critical national infrastructure backup. Compact footprint. Resilient in any weather or emergency.

๐Ÿ™๏ธ Urban Power

Silent operation enables deployment in dense urban environments where conventional turbines are prohibited.

๐Ÿฅ Critical Infrastructure

Hospitals, command centers, communications hubs โ€” facilities where power interruption is not an option.

Development Status

From prototype to market.

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Composite material developed and tested

Closed molecular crosslink structure engineered. Strength, fire rating, and thermal properties validated.

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MAG-LEV turbine design engineered

Vertical axis magnetic levitation architecture designed and refined.

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Five smaller-scale prototypes built and tested

Five smaller-scale MAG-LEV turbine units constructed and tested, validating the core magnetic levitation and composite blade technology.

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Full-scale 2.2 mW unit in production

The first full-scale commercial unit โ€” 2.2 mW per 100,000 sq ft section โ€” is currently being manufactured. This is the go-to-market system.

Commercial deployment โ€” Q1 2027

Targeted Q1 2027, pending current capital raise. Data center and airport deployments planned as first commercial installations.

The window is open.

Funding scale. Not speculation.

The core technology is validated. Five smaller-scale prototypes have proven the concept. The full-scale 2.2 mW commercial unit is in production now. Investors are funding scale-up at the moment of maximum national need โ€” with commercial deployment targeted Q1 2027.

Investor Information Get in Touch