DESIGN AND PERFORMANCE EVALUATION OF A TRI-WAVE POWER GENERATION

Abstract

The increasing global demand for sustainable and uninterrupted energy has accelerated the development of hybrid renewable power generation systems. With ever-increasing global energy demand and finite reserves of fossil fuels, renewable forms of energy are becoming increasingly important to consider. Wave energy is a widely available source of renewable energy that is being investigated by dozens of wave energy projects using a variety of techniques. One common design for a wave energy converter (WEC) is the point absorber or buoy, which floats on or below the water surface and captures energy from the movement of the waves. This project presents the design and conceptual development of a tri-wave power generation system that integrates solar energy, sea water wave energy, and wind energy to achieve continuous power generation. The proposed mechanical system is specifically intended for marine (sea-based) installation, enabling effective utilization of abundant natural resources available in coastal and offshore environments. By combining three renewable sources, the system aims to overcome the intermittency limitations associated with single-source power generation and ensure all-time power availability regardless of season or time of day. The project emphasizes maximum utilization of natural energy sources with minimal environmental impact. Key challenges associated with marine deployment, such as cyclonic conditions, saltwater corrosion, and harsh sea environments, are analyzed, and design considerations are discussed to enhance system reliability and durability. The tri-wave power generation concept demonstrates significant potential as a sustainable solution for continuous renewable energy production, particularly in coastal regions. This project highlights the feasibility of hybrid renewable systems as an effective approach toward meeting future energy demands while reducing dependency on conventional fossil fuels