Electricity is a fundamental requirement for individuals worldwide, driving technological advancements that were once unimaginable. Various methods are employed for electricity generation, depending on the availability of raw materials in different regions. Traditional sources such as thermal power (coal and natural gas), hydropower (water), solar power (sunlight), wind power, and nuclear power are widely used, with thermal and hydropower plants being the primary contributors. Approximately 70% of global electricity is produced from thermal power plants, but these methods contribute to environmental pollution, greenhouse gas emissions, and acid rain. Thermal power plants typically operate on the Rankine cycle, consisting of a boiler, turbine, condenser, and pump. A similar approach can be applied to the Organic Rankine Cycle (ORC) using solar energy, where heat is transferred to the working fluid in the boiler through a heat pipe, a passive heat exchanger system. This closed-loop system uses Liquefied Petroleum Gas (LPG) as the working fluid in the Organic Rankine Cycle, with acetone as the working fluid in the heat pipe. The boiler is designed to operate at a pressure range of 4-7 bar, while the turbine operates at an optimal temperature of 150-200°C to ensure maximum thermal efficiency. In this study, a refrigerant boiler was developed with thermal management strategies to enhance efficiency. The heat transfer rate of the solar collectors was evaluated based on varying environmental conditions, and the evacuated tube collectors showed temperature efficiencies ranging from 40-60% under different irradiation levels. Specific technical data for the solar collectors include an average heat flux of 500 W/m² and a collector efficiency of 65% at peak sunlight intensity. The system is designed to maintain a temperature of 250°C in the boiler for optimal working fluid vaporization and maximum pressure generation. Additionally, the performance of the system was tested under varying weather conditions, with a focus on temperature fluctuations and their impact on system efficiency. This research provides insights into the development of solar-powered ORC systems, highlighting their potential for clean, sustainable energy production. The study also contributes to improving the thermal management of refrigerant boilers, ensuring effective temperature regulation and higher overall system efficiency for solar electric energy conversion.