Oxyhydrogen, a clean and efficient fuel composed of hydrogen and oxygen gases, is produced through water electrolysis. However, conventional methods are often costprohibitive due to high energy requirements and the use of expensive materials. This study focuses on an economical approach to producing oxyhydrogen by optimizing the electrolysis process to reduce costs and improve energy efficiency. The research investigates the use of renewable energy sources such as solar and wind to power the electrolysis units, significantly reducing the dependency on conventional electricity and lowering operational costs. Cost-effective electrode materials, such as stainless steel and nickel, are proposed as substitutes for expensive metals like platinum, without compromising efficiency. Innovative designs in electrolyzer cells, including optimal electrode spacing and enhanced ion-exchange membranes, are employed to maximize gas production and minimize energy losses. Additionally, the study explores the integration of waste heat recovery systems to further enhance energy efficiency. Economic feasibility and scalability are evaluated, demonstrating that the proposed methods offer significant potential for industrial applications, transportation, and domestic energy solutions. By developing a more affordable and sustainable approach to oxyhydrogen production, this study aims to advance its adoption as a viable alternative to fossil fuels in the pursuit of a cleaner energy future.