A 25-year floating solar lifetime must be engineered—not assumed. Learn how loads, fatigue, UV ageing, corrosion, testing, monitoring and maintenance support long-term reliability.

Follow the complete floating solar development process—from water-body screening and surveys to engineering, permitting, installation, commissioning and O&M handover.

Floating solar cost depends on far more than modules and floats. Explore the CAPEX, OPEX and site-specific factors that determine a realistic FPV project budget.

Floating solar arrays must withstand wind, waves, currents and changing water levels. Learn how mooring lines, anchor types and site-specific engineering keep FPV plants safely in position.

Is your lake, reservoir, quarry, industrial basin or port suitable for floating solar? Use this practical checklist to assess site conditions, access, mooring, grid connection, environmental constraints and project viability.

Floating solar reliability depends on understanding the real forces acting on every component. Discover how site-specific load analysis, fatigue assessment and properly engineered mooring systems help FPV plants withstand decades of wind, waves and changing water conditions.

Floating solar can do more than generate renewable electricity. With careful site selection, ecological design and long-term monitoring, it may also support aquatic habitat enhancement.

Learn how the Environmental Impact Assessment process works for floating solar projects in Europe, including the key stages, realistic 18–24-month timeline, typical costs, and how low-impact system design can simplify permitting.

HelioRec has been awarded €496,575 in European Union FEDER funding to accelerate HELIOMAR, a €1.1 million research project developing the next generation of coastal floating solar technology. Supported by the Pays de la Loire Region, the project will strengthen European innovation, sustainable energy production and industrial competitiveness.