31.05.26 Presentation ECSLAS-006

1. ECSLAS 006

WIND POWER
CONCEPT
Next-Generation Controlled
Airflow Technology

2. Table of contents

(01) The Idea
(02) Technology Behind
(03) Platform Design
Operational
(04)
Advantages

3. The Idea

01
The Idea
What problems does the
ECSLAS 006 solve – and
what does it offer?

4. Limitations of Conventional Wind Turbines

Standard turbines
are static
Inefficient
speed range
They cannot adapt airflow volume, speed,
or direction in real time — making output
entirely dependent on unpredictable
atmospheric conditions.
Standard turbines underperform at both low
and very high wind speeds, drastically
reducing annual effective operating hours
and yield.
Technological
complexity
Environmental
limitations
Large blade diameters are required to
generate meaningful power, increasing
manufacturing costs, transport difficulty,
and installation risk.
Noise, visual blade flicker, and bird strike
risk limit deployment in populated,
residential, or ecologically sensitive zones.

5. Our Vision

A passive, wind-directed system whose goal is:
Airflow Control
Exhaust Control
Flexibility
The system actively concentrates,
accelerates and steers incoming airflow
before it reaches the turbine blades. Using
a convergent camera and speed-up
channel, airflow velocity multiplied 4× —
independent of external atmospheric
conditions.
Spent air is not left to dissipate passively.
Ejector flaps and air-gates at the divergent
camera outlet force exhausted airflow out in
a controlled direction, using the energy of
external atmospheric masses to sustain
continuous internal pressure differential.
Built on a modular platform, the system
scales vertically without additional land use.
Each module is fully autonomous,
replaceable, and adaptable to any climatic
or geographic zone — making it equally
suited for onshore wind farms and offshore
marine platforms.

6. Adaptability

One of our primary goals is high adaptation to
the current environment and automated
decision-making to continuously boost output
efficiency.
Different Wind Conditions
ECSLAS 006 adapts automatically to low, medium, high, and
storm-force wind speeds. At low speeds, the convergent
camera concentrates airflow to sustain generation. At stormforce speeds, air-gates partially close to protect the system
while maintaining output — eliminating the full shutdowns
that standard turbines require.
Deployable in Any Climate or
Region
Output That Follows Demand
The system is at home anywhere — from arctic coastlines to
desert plains, from inland hills to open-sea platforms. No site
should be ruled out because of climate, salt air, or
temperature extremes.
The system responds to the grid, not just to the wind. When
demand rises, it scales up. When demand drops, it pulls back
— so the energy produced is always the energy needed,
reducing waste and improving grid stability.

7.

A Connected Self-Learning Network
Every ECSLAS module is a node. Together, they form a global
intelligence — sharing data, learning from each other, and improving
with every gust of wind.
Collective Data
01 Stream
Every module continuously sends its operating data
— wind conditions, output, and adjustments — to a
shared cloud platform.
Self-Learning
02 Intelligence
The system learns from data points across all
installations, identifying the most efficient operating
patterns for every condition.
03 Predictive Adaptation
Each module benefits from what every other
module has learned — anticipating weather shifts
and optimising output before conditions change.

8. Target Applications

Onshore
Offshore
Wind farms in open plains and hilly regions
Coastal and deep-water platforms
Industrial and commercial rooftop
installations
Residential zones — low noise & no blade
flicker
Suitable for high and variable wind-speed
zones
Robust modular structure withstands marine
conditions
Hybrid solar + wind configurations
On-/offshore grid integration via Smart Wind
Power

9. Technology Behind

02
Technology Behind
The physics, engineering and
architecture of ECSLAS 006

10.

Core Physical Principle — Bernoulli's Law
ECSLAS 006 engineers a controlled pressure zone to multiply airflow
velocity
01 Convergent Camera
Blue arrows = incoming atmospheric flow | Red arrows = accelerated working flow
the design shown above is not based on ECSLAS architecture and serves only for visual demonstration of the underlying Bernoulli principle.
1
Positioned perpendicular to incoming wind, the
convergent camera narrows the airflow path. As
cross-section shrinks, pressure rises and a
controlled high-pressure zone builds at the
system's entry.
02 Speed-Up Channel
2
1
3
2
Between the high- and low-pressure zones lies the
speed-up channel — where the working airflow
accelerates dramatically before reaching the
turbine blades, multiplying the energy available for
conversion.
03 Divergent Camera
3
At the outlet, the divergent camera expands the
cross-section parallel to the incoming flow,
generating a low-pressure zone. Ejector flaps then
force the spent air out, sustaining the pressure
differential that drives the entire cycle.

11. System Architecture

0
1 Autonomous Modular Units
The system is built from independent, standalone modules — each a fully self-contained
GA unit with its own airflow control. Modules
combine into one system but operate
independently.
0
2 Integrated Airflow Management
Within each module, a controlled adjustment
unit regulates the direction, concentration,
and volume of incoming airflow, while a
reduced-pressure zone governs working flow
and forced air exhaust.
Image generated by AI based on our technical documentation — for illustrative purposes only

12. System Architecture

0
3 Zone-Specific Configuration
Each module carries replaceable,
interchangeable technological equipment —
selected by climatic and geographic zone —
combined with composite blades of reduced
aerodynamic resistance and far smaller
diameter than standard turbines.
0
4 Ground-Level Generator
The main generator is positioned at the
foundation level, close to the ground,
providing easy access for installation,
maintenance, and repair without requiring
tower-top servicing.
Image generated by AI based on our technical documentation — for illustrative purposes only

13. Platform Design

03
Platform Design
Modular architecture, smart
control and hybrid capability

14. Modular Platform Design

Vertical Stacking
Autonomous Operation
Modules stack upward on the same
foundation, allowing capacity to grow
without claiming additional ground or sea
area. The footprint stays constant; only the
output scales.
Each module operates independently,
transmitting torque to the shaft of its own
generator — separate from all other rotors
in the system. Modules can run in parallel,
partially, or in isolation — depending on
demand and conditions.
Built-In Survivability
Easy Replacement
Each module has its own independent
generator, which significantly increases the
survivability of the entire system.
Modules are light, interchangeable, and
replaceable individually. Capacity upgrades
or component repairs can be carried out on
a single unit while the rest of the system
stays in service.

15. Modular Platform Design

Image generated by AI based on our technical documentation — for illustrative purposes only
Image generated by AI based on our technical documentation — for illustrative purposes only
Image generated by AI based on our technical documentation — for illustrative purposes only

16. Smart Control System

Smart Grid Integration
Multiple installations communicate with each other and act as
one coordinated network. Modules collectively respond to
grid demand, share performance data, and optimise output
across the entire fleet.
Image generated by AI based on our technical documentation — for illustrative purposes only
Autonomous Self-Regulation
Remote Operation
An adaptive processor embedded in each module
continuously tunes airflow parameters via servo drives —
maintaining optimal speed, volume, and direction without any
human input or external command.
Full external control over every output parameter is available
via remote access — through dedicated software or manual
override. Operators can monitor and adjust any installation
from anywhere in the world.

17. Flexibility, Growth & Resilience

Flexibility, Growth & Resilience
Hybrid Generation
Each system can be equipped with solar panels — combining
wind and solar in a single installation. Hybrid output
maximises yield across all weather conditions, and modules
can also feed micro-grids independently.
Limitless Scalability
Fail-Safe Architecture
Capacity grows by stacking modules vertically on the same
foundation — no additional land or sea area needed. Blade
diameter never changes, so logistics, transport, and
installation stay simple at any scale.
Every module is fully autonomous; the failure of one leaves
all others operating normally. Capacity upgrades and repairs
are carried out on individual modules while the rest of the
system keeps generating.

18. Operational Advantages

04
Operational Advantages
Performance data,
benchmarks, economics and
ecological impact

19. Economic Case

×4
Airflow velocity multiplier
vs. standard turbine
Blade diameter
(same power output)
Annual effective
operating hours
Smaller blades: lower manufacturing cost, simpler logistics, easier installation and maintenance across all
zones.
No costly service downtime: modules are replaceable individually — repair one while the rest keep
generating.
Capital cost per watt decreases as capacity increases through vertical module stacking on the same
footprint.
Hybrid solar integration further improves return on investment by maximising site energy output.
Cost per 1W
nominal capacity

20. Ecological Impact

Low Noise
No Blade Flicker
Wildlife Safety
System design significantly reduces
operational noise compared to open-rotor
turbines.
Enclosed rotating blades eliminate the
disruptive visual flicker effect near
populated areas.
No factors affecting environment, flying
birds or animals — safe for biodiversitysensitive zones.
Landscape Integration
Climate Contribution
Residential Zones
Exterior profile and color adaptable to
surrounding landscape — multiple outline
variants available.
Each system makes a small but meaningful
contribution to climate preservation goals.
All of the above make ECSLAS 006
suitable for deployment in urban and
residential environments.

21. Thanks!