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An offshore wind farm at dusk, turbines running to the horizon

The missing linkfor the next generationof wind energy.

We develop drivetrain technology that enables larger, more efficient and more reliable wind turbines — a key to accelerating the energy transition.

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01

The energy transition

The world needs dramatically more clean electricity — fast.

02

More wind power

Wind energy is one of the most scalable and cost-competitive sources of new electricity.

03

Larger turbines

Bigger turbines capture more energy per installation and lower unit cost.

04

The missing link

Terawind drivetrain technology unlocks the potential of next-generation turbine scale.

The challenge

Wind turbines are getting bigger. Drivetrains need to evolve with them.

Larger rotors, increasing turbine ratings and more demanding operating conditions are raising the bar for drivetrain performance, reliability and controllability. We believe the next generation of turbines requires a new systems-level approach.

Scale changes the loads

Greater rotor diameter and turbine power increase the dynamic demands placed on the drivetrain.

Operating conditions matter

More variable and demanding conditions require greater controllability across the full system.

Reliability cannot be traded away

The industry needs larger turbines without proportionally increasing technical and lifecycle risk.

Earth from orbit at sunrise, Europe and North Africa below

One planet.
One energy future. Every step toward more clean energy protects our climate, our environment and the well-being of future generations.

The energy transition

Why larger and more reliable turbines are essential.

To achieve climate goals, we must massively scale renewable energy. Wind can deliver enormous volumes of clean electricity — but only if turbines continue to grow in size, output and performance.

01

More renewable electricity

The world must replace fossil generation with clean, scalable energy.

02

More energy per turbine

Larger rotors and higher hub heights capture more energy from better wind resources.

03

A drivetrain that can keep up

Scaling is only possible if drivetrain performance and reliability scale with it.

04

Reliability turns capacity into electricity

A turbine only earns while it runs. As machines grow, repairs get slower and costlier — especially offshore — so each failure withholds more clean energy than before.

Why now

The scaling curve has not finished.

Wind turbines have progressed from roughly 2 MW machines to today’s 15+ MW frontier. To keep reducing the cost of wind energy and accelerate deployment, this trajectory needs to continue.

The next challenge is not simply making the rotor larger — it is enabling the drivetrain to scale with it.

~2 MWEarlier scale
3–4 MWUtility scale
6–8 MWScaling
10–12 MWLarge platforms
15+ MWToday’s frontier
NextEnabled by drivetrain scale
Our technology

Engineered differently. Designed for what comes next.

Terawind is developing a high-performance drivetrain platform combining advanced engineering, power electronics and intelligent control. The platform is being developed around performance, reliability and lifecycle value — purpose-built for the next generation of turbine scale.

Higher energy capture

Designed to maximize usable energy across a wide range of operating conditions.

Reduced drivetrain stress

System-level control targets damaging transient and fatigue loads.

High reliability

Designed around durability, availability and long-term operating performance.

Lower LCOE

More energy and higher availability improve whole-life turbine economics.

Intelligent control

Intelligent hardware. AI-enhanced control.

From reactive protection to predictive drivetrain management. Terawind is developing hardware and control as one integrated system: intelligent hardware creates the physical capability, while AI-enhanced control helps use that capability more effectively as operating conditions change.

Intelligent hardware

Drivetrain architecture engineered with controllability, dynamic performance and system integration in mind from the outset.

AI-enhanced control

Machine learning augments physics-based models to anticipate operating conditions and continuously improve the control response within defined limits.

Safety remains deterministic. AI enhances prediction and optimization; certifiable hard limits and fallback behaviour remain independent and enforceable.
A wind farm spread across open farmland
Our impact

Scale matters. Speed matters too.

The energy transition is not only a question of how much renewable capacity we can ultimately build — it is a question of how quickly we can build it. Atmospheric CO₂ continues to rise, so every year of faster clean-energy deployment matters.

By enabling larger, more productive turbines, Terawind is designed to help the wind industry add more clean generation per installation — accelerating the transition in both scale and speed.

More clean energy, sooner.

Technology that increases energy delivered per turbine can help compress the time needed to add meaningful volumes of renewable electricity.

More energy

More usable clean electricity from every turbine.

Higher availability

Fewer failures and greater uptime.

Lower emissions

Every additional GWh of wind displaces fossil generation.

Our roadmap

From innovation to industry.

Research & Design

Concept and system architecture.

Validation

Component and system validation.

Demonstration

Full-scale testing in relevant conditions.

Industrialization

Productization, certification and manufacturing readiness.

Commercialization

Scaling with partners and global deployment.

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