One patent-granted wave converter, one patented hybrid system, and two machines that extend the same thinking to sun, wind and traffic.
A converter that turns the force of waves into clean electricity — designed for the highest possible yield at the lowest possible build cost.
We named it after the mythical craftsman because it was built the way he worked: observe, correct, rebuild. It was developed through a long period of research in real sea conditions, not in tanks with artificial waves, because the energy potential of a real sea is the only thing worth designing against.
The mechanism works on the principle of the free gyroscope — a flywheel free to move on all three axes. The float is connected to the gyroscopic mechanism by a strong lever, which converts the float's free movement into rotation.
The float follows whatever direction the wave takes, so the system exploits both the potential and the kinetic energy of the wave. Existing installed systems only rise and fall, which leaves most of the wave's energy on the table.
The only wave converter in the world that measures wave height to the centimetre, by applying the Pythagorean theorem. The machine that harvests the sea is also the instrument that reads it.
Hydrostatic forces, bending moments and overturning moments were designed for from the start, so operation is guaranteed even in the most adverse conditions.
The simplicity of the system makes it ergonomic and dependable, with low maintenance needs — which is what makes it a safe source of return for an investor.
The float is bulbous in shape so that it absorbs and minimises the impact forces of the wave rather than fighting them.
Easily removed from the water when needed — for maintenance, for storage out of season, or to protect it from extreme weather.
| Output range | 0.5 kWh to 100 kWh, built to size for the client's demand |
|---|---|
| Principle | Free gyroscope — three-axis flywheel driven by a lever from the float |
| Siting | Any coast where waves reach; shore, jetty, precast block or vessel |
| Maintenance | Low, by design. Support from the same people who designed and built it |
| Service life | Long, with straightforward removal for storage or protection |
| Measurement | Wave height to centimetre resolution, integral to the machine |
A small-footprint mechanism that can be placed on any coast and cover the green electricity needs of seaside homes, hotels, campsites, restaurants and any other installation beside the sea.
| Autonomy | Full or partial energy autonomy for coastal homes |
|---|---|
| Hospitality | Part of the electricity demand of seaside hotels and campsites |
| Public lighting | Marinas and coastal roads |
| Water | Pool replenishment pumps; continuous supply to fish farms; desalination |
| Mobility | EV charging stations, combined with wind turbines and/or photovoltaics |
| Science | Energy autonomy for marine recording and transmission devices in low-sunlight areas |
Making renewable energy available round the clock. A patented system that integrates solar, wind and wave capture with compressed-air storage and a flywheel generator.
Renewable systems have one structural weakness: their output depends on the variability of the resource. Keeping a grid stable usually means falling back on internal-combustion generators. S.H.E.S. is our answer to that.
Solar panels absorb sunlight, wind turbines take the wind, and wave energy converters exploit the force of ocean waves — all feeding one system.
The distinguishing feature. When there is surplus energy — a very sunny or windy day — the excess is used to compress air, which is then stored in chambers.
When demand exceeds what the renewables can supply directly, the compressed air is released into the generating units, so supply stays stable when the resource is scarce.
At the heart of S.H.E.S. A motor-driven flywheel working alongside a generator: released air drives the motor, the flywheel spins, and that rotational energy is converted back into electricity — storing kinetic energy and smoothing out fluctuations.
Algorithms analyse historical data, weather patterns and demand trends to anticipate when renewable supply will be abundant. The system simultaneously monitors generation, consumption and storage levels in real time, allowing dynamic adjustment and management of when compressed air is released.
The system issues significant alerts as they happen — informing operators immediately of low stored-power levels, or predicting drops in output based on forecast conditions, so decisions can be made early enough to matter.
A hybrid generating unit that exploits both the sun and the wind, and connects to everything else we build.
Powered by Lever DynamisTakes the mechanical energy of vehicles and turns it into electricity — without the driver ever noticing.
Road Energy is built on a piezoelectric harvesting mechanism combined with machine-learning techniques. The transducers exploit the kinetic energy of moving cars, collecting the maximum yield from each vehicle according to its mass and weight. That energy is carried from the transducers to a central unit through an innovative hydraulic system.
What separates it from similar technologies is that hydraulic mechanism: it produces electricity continuously and without disturbance, because it needs no special road ramps, no reduction in speed and no other interruption to the driving experience.
The technology was recognised with the Silver Award for Green Start-up at the Green Brand Awards 2023, presented with our strategic partner Urban Camel, who mapped the technology, its applications and its contribution to the UN Sustainable Development Goals.
| Output | 80,000–100,000 kWh per year from a single unit |
|---|---|
| Mechanism | Piezoelectric transducers + hydraulic transfer to a central unit |
| Driver impact | None. No ramps, no speed reduction, no disturbance |
| Siting | Ports, airports, hospitals, schools, toll stations |
| Monitoring | Tracks traffic and road temperature, contributing to safer and more sustainable mobility |
| Recognition | Silver Award Green Start-up, Green Brand Awards 2023 |
Epignosis is the layer that reads it — turning the real behaviour of a floating converter into something you can evaluate, predict and improve.