Form follows function and efficiency

Covering more than 28 hectares, the photovoltaic plant was designed with one goal in mind: consistent, high-performance energy generation.

The installation integrates 40.852 bifacial solar modules, each rated between 665 and 670 Wp, configured to capture sunlight from both sides and optimise the use of natural reflection from the ground. This dual-surface technology increases the overall yield, providing steady output even during lower irradiation periods.

Each system component was carefully selected for reliability and durability. The layout ensures maximum exposure throughout the year, while the structural design allows easy maintenance and long-term stability.

The result is a plant that operates predictably and efficiently, maintaining a balanced performance ratio of 1,302 kWh/kWp/year, and transforming the region’s solar potential into tangible, measurable results.

Grounded in responsibility

Developed entirely on private land, the project was built around a principle of efficient use of space and environmental integrity. Every stage followed strict sustainability standards to minimise dust, noise, and waste during execution.

Only certified, low-impact materials were used, and all by-products were managed through authorised recycling and recovery channels.

After completion, the land was fully restored, integrating the photovoltaic infrastructure seamlessly into the local landscape. This approach reduced the project’s footprint and also ensured long-term compatibility with the surrounding area.

It reflects a mindset where energy development goes hand in hand with environmental responsibility, turning infrastructure into a sustainable part of the landscape rather than an intrusion upon it.

Supervision that never stops

The plant is equipped with an advanced SCADA platform and a video monitoring system that provide real-time insights into every operational parameter, from energy yield and equipment status to environmental conditions.

This continuous supervision allows for immediate response, predictive maintenance, and performance optimisation at any stage of operation. The integration of monitoring and control technologies transforms a static installation into a responsive, data-driven infrastructure.

By combining automation with analytics, the plant maintains efficiency and reliability, ensuring stable energy delivery, reduced downtime, and long-term performance consistency.

Integrating energy into the infrastructure of progress

This project demonstrates what large-scale renewable energy can achieve when designed with precision and purpose.

This project stands as proof that efficiency, intelligence, and environmental awareness can operate within the same system, not as separate goals, but as the foundation of modern energy design.

Beyond its operational results, the plant represents a mindset shift in how renewable infrastructure is planned and managed. It shows that solar energy, when implemented at this scale, becomes part of the region’s backbone, supporting local development, attracting investment, and reinforcing energy security.