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 Technology Profile

Title:

Floating Platform for Hybrid Offshore Horizontal Axis Wind Turbine (HAWT) and Solar Farm

Value Proposition:

This Floating Platform seamlessly integrates Horizontal Axis Wind Turbine (HAWT) with solar photovoltaic (PV) arrays on a single floating structure, delivering continuous, high-yield renewable energy generation even in deep water environments. It maximizes energy output per ocean footprint, reduces infrastructure and maintenance costs, and ensures energy stability through complementary wind–solar resource utilization.

By combining proven offshore wind energy with solar energy harvesting, the platform offers:

  • Higher capacity factor through dual source generation.
  • Reduced levelized cost of energy (LCOE) via shared mooring, electrical infrastructure, and maintenance systems.
  • Scalability and adaptability for various marine environments and energy demands.
  • Sustainable energy production with minimal environmental footprint compared to traditional offshore installations.
Summary Application:

This floating platform integrates horizontal axis wind turbine (HAWT) with floating solar photovoltaic (PV) systems on a single structure to harness both wind and solar energy in marine environments. This hybrid approach is particularly suitable for deep water regions where fixed bottom turbines are impractical. It provides a stable, continuous renewable energy supply by combining the complementary generation profiles of wind and solar resources. Such systems can be applied for large scale offshore renewable power generation, grid connected energy supply, or as independent power sources for offshore industries such as aquaculture, hydrogen production, and desalination. By utilizing shared infrastructure and minimizing seabed disturbance, the hybrid floating platform optimizes ocean space use, reduces overall costs, and supports sustainable energy development in coastal and island regions.

Advantages:
  • Higher and more stable power output: Wind and solar complement each other, reducing intermittency and increasing total energy yield.
  • Shared infrastructure: Common mooring, cabling, and maintenance systems lower overall costs.
  • Efficient ocean space use: Combines two renewables on one platform, minimizing marine footprint.
  • Improved cooling and performance: Ocean environment help to cool solar panels, enhancing efficiency.
  • Reduced transmission losses: More consistent generation enables better grid utilization.
  • Lower environmental and visual impact: Offshore installation avoids land use conflicts and reduces visibility from shore.
  • Supports hybrid innovations: Enables integration with energy storage or hydrogen production for steady supply.
Tech. Readiness Level:
CSIR-Structural Engineering Research Centre
CSIR-Structural Engineering Research Centre[CSIR-SERC]
:  director[at]serc[dot]res[dot]in
:91-44-22542139
:https://serc.res.in
Industrial Applications: Simulation [Computers and Electronic Data Processing] Systems [Energy]
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