Experimental study for hydrogen production using low energy nuclear reactions

This thesis investigates the potential of Low Energy Nuclear Reactions (LENR), often associated with cold fusion, pyrolysis, and plasma electrolysis, for hydrogen generation. The motivation for this research stems from the increasing demand for sustainable, clean energy sources, with hydrogen being a leading candidate due to its environmental and economic benefits. LENR offers a promising method for hydrogen production, operating at lower temperatures and requiring less energy compared to traditional electrolysis methods. This study focuses on evaluating the efficiency of hydrogen production through LENR, comparing it to Faraday’s law predictions, and optimizing gas production. The experimental setup consists of a custom-built electrolysis cell designed specifically for LENR, utilizing tungsten and graphite as the anode and cathode, with a sodium bicarbonate electrolyte solution. To ensure accurate data collection, an Arduino-based system with sensors for voltage, current, and temperature was integrated, allowing for real-time monitoring during the experiment. The results indicate that LENR-based electrolysis can effectively produce hydrogen, though challenges remain in achieving precise hydrogen flow rate measurements. This highlights the need for more advanced tools, such as mass flow sensors or gas chromatography. Additionally, the development of plasma under varying voltage conditions was observed, and the relationship between voltage, current, and the electrolysis process was analyzed, This thesis underscores the complexities and challenges associated with LENR experiments, particularly in terms of measurement techniques. The findings contribute to the growing body of research on LENR and its potential for more energy-efficient hydrogen production, while emphasizing the need for further technological advancements and research to fully explore its capabilities in energy generation.