PV Roof Elements
Photovoltaic integration into tiles, slates and roof components.
FET integrates energy harvesting, transformation, storage, management and actuation into products, structures and autonomous systems.
Our technologies are developed to work together as parts of a complete energy architecture, from the first mechanical concept to the final operating function.
FET develops the photovoltaic element together with the host component. Geometry, structural support, energy requirements, storage and control are considered from the beginning of the design.
The objective is not to add a photovoltaic panel afterwards, but to create a component that retains its original function while also harvesting and managing energy.
The photovoltaic geometry follows the product rather than forcing the product to follow a standard panel.
Mechanical design, photovoltaic elements, storage, electronics and control are developed in parallel and then integrated into the final component through dedicated assembly and encapsulation processes.
Cells are selected, shaped and integrated according to the geometry and function required by the final application. The result can be a tile, a shutter, a roof element, a structural profile or a complete autonomous product.
Structural photovoltaics can be adapted to architectural, outdoor, mobile and infrastructure components without changing the identity of the host product.
Photovoltaic integration into tiles, slates and roof components.
Walkable active surfaces with energy, lighting and signalling functions.
Cells and photovoltaic elements shaped around the component geometry.
Photovoltaic harvesting incorporated directly into complete products.
Compact storage can be mechanically configured to fit the host product. Shape, capacity and connections are selected around the available space and required service.
Applications include shutters, tiles, backpacks, umbrellas and other products where a conventional battery format would limit integration.
Higher capacities are obtained by aggregating manageable battery modules under BMS and supervisory control.
Modules can be stored, charged together and automatically exchanged, enabling battery-swap architectures and continuous-service applications.
FET develops integrated systems combining photovoltaic collection, medium-to-large electrical battery storage and geothermal accumulation.
ANNA is one development path in which photovoltaic roof elements, buffer batteries and geothermal piles operate as parts of the same energy system.
FET integrates battery storage, BMS, power electronics, electric motors and control into specialised mobile platforms.
The current development direction focuses particularly on autonomous systems for rural and operational activities, where traction, guidance, sensing and the working tool must operate as one system.
FET combines harvesting, electrical and thermal storage, intelligent management and actuation according to the service required by the final application.
Autonomous outdoor energy and shade management.
Portable function with integrated energy and services.
Photovoltaic, electrical and geothermal storage integration.
Electric traction, sensing, energy management and continuous operation.
One technological approach, from the component to the autonomous application.