It is often said that the cheapest energy is the one we do not consume… our vision of efficiency also includes cost control.

First of all, the installation costs; each project is the subject of a detailed study to evaluate several possible solutions and the synergies that can result from their implementation.

Then operating costs; we select components for their high efficiency (to ensure production at a lower cost), durability (to ensure long-term operation) and low carbon footprint (for a reduced environmental cost).

This approach based on cost control allows us to offer you a very short return on investment (less than 5 years) for a very long installation life (at least 50 years).

Up to 100% coverage of thermal needs (heating, cooling, DHW).

To ensure your thermal comfort at all times, we install in our systems many intelligent sensors (using communication technologies) in order to be able to react to the slightest change in temperature.

Every second, the operation of the system is evaluated and compared with the set point parameters and external parameters (temperature, sunshine, etc.).

The control and regulation units that equip our facilities use artificial intelligence (AI) technologies to modulate the operation of the system by integrating in real time various parameters such as temperature histories, weather forecasts and pre-established scenarios of site use.

In the case of a renovation project, the WATeBOX management system can integrate existing equipment (heat distribution units, solar or photovoltaic panels) into the operation of the system.

100% renewable energy, no CO₂ or GHG emissions.

It makes no sense to propose a heat management concept without integrating environmental preservation values.

For WATINYOO, not only does energy only make sense if it is renewable, but heat production must be eco-responsible by limiting the impact on the environment.

The solutions we propose are based on a circular analysis of the need to limit unnecessary production. For example, a heating requirement and a domestic hot water (DHW) requirement are often treated separately when they could be shared…

In this example, we would propose a heat pump (HP) to cover the need for heating and DHW at the same time. In addition, by combining hybrid solar panels (heat recovery photovoltaics) with it, we cover a large part of the HP’s primary energy needs (electrical) while providing the bulk of the thermal energy needs for the production of DHW. This is energy that is not wasted and heat that is not produced unnecessarily.

Through this approach, we contribute to the reduction of GHG (Greenhouse Gases) and of CO₂ emissions on our equipment. It’s good for the planet.

The heat pumps (HP) are connected to the water loops installed in the ground, thus benefiting from an ideal inlet temperature for a maximum COP.

By associating the water loops with each other, by means of plate heat exchangers, we create a micro intelligent heat network (SmartGrid thermal) able to ensure the transfer of the calories required by the different WATeBOX connected.

Thanks to the WATeBOX(control and regulation unit), each installation can automatically communicate with the other installations in the network in order to transmit heat requests or respond to requests initiated by other WATeBOX within the same network.

The extension of the network makes it possible to increase the number of additional renewable energy collection points (roof, grey water, etc.) and, consequently, to contribute to improving their performance.