Development of Novel Catalysts for Sustainable Hydrogen Production via Methanol Steam Reforming

Thesis Abstract

Abstract
The global shift towards sustainable energy sources has accelerated the need for efficient hydrogen production methods. This thesis focuses on the development of novel catalysts for sustainable hydrogen production through methanol steam reforming. The utilization of methanol as a feedstock for hydrogen production offers several advantages, including ease of transportation and storage. Catalysts play a crucial role in the methanol steam reforming process by facilitating the conversion of methanol into hydrogen and carbon dioxide. Chapter One provides an introduction to the research topic, outlining the background of the study, problem statement, objectives, limitations, scope, significance of the study, structure of the thesis, and definition of terms. The literature review in Chapter Two examines existing research on catalyst materials and reaction mechanisms in methanol steam reforming. The review highlights the importance of catalyst design in enhancing reaction kinetics and selectivity towards hydrogen production. Chapter Three details the research methodology employed in the study, including catalyst synthesis, characterization techniques, reaction conditions, and data analysis methods. The experimental approach aims to optimize catalyst performance and understand the underlying mechanisms governing methanol steam reforming. The discussion of findings in Chapter Four presents a comprehensive analysis of catalyst performance, reaction kinetics, and product selectivity. The results highlight the influence of catalyst composition, structure, and operating conditions on hydrogen production efficiency. In conclusion, Chapter Five summarizes the key findings of the study and discusses the implications for sustainable hydrogen production via methanol steam reforming. The research contributes to the development of advanced catalyst materials for enhancing the efficiency and sustainability of hydrogen production processes. Overall, this thesis underscores the importance of catalyst design in driving innovation towards a greener energy future.