Ultrasound Technology for Fuel Processing is a comprehensive reference guide that explores the application of sonochemistry and ultrasound waves in the intensified processing of fuels. The book focuses on the cavitation phenomenon, which generates extreme conditions, such as high temperatures and pressures, within the cavitation bubbles, leading to significant enhancements in chemical reactions and overall process yields. Key features of the book include comprehensive coverage of ultrasound fuel processing, with the inclusion of information about several new processing techniques, detailed references, and a focus on sustainability enhancing petrochemical technologies. Key Topics: - The basics of ultrasound technology, including its history, acoustic wave origin, and process parameters influencing cavitation thresholds. - Green hydrogen production through sonolysis of water and the influence of various parameters on hydrogen yield. - Pre-treatment methods for biofuel production, exploring both conventional and novel green methods. - Ultrasound-based techniques to enhance alternative energy production (biocrude, biogas, and bioethanol). - Biodiesel synthesis using ultrasound-microwave synergy for enhanced processing rates. - Intensified approaches in sonochemistry, including the use of cavitation, fundamentals of sonochemical reactors, and operational guidelines for maximizing biodiesel yields. - Enhanced oil recovery and crude oil upgradation using ultrasound and cavitation techniques, focusing on cracking heavy hydrocarbon molecules. - Ultrasound-assisted chemical and bio-desulfurization processes. Ultrasound Technology for Fuel Processing provides an in-depth understanding of the principles and applications of ultrasound in fuel processing, offering valuable insights for researchers, faculty, and professionals in fuel processing technology and related areas in industrial, petroleum and chemical engineering.

Diverse Strategies for Catalytic Reactions is a compelling exploration of catalysis, a cornerstone in chemical sciences that has propelled the evolution of chemical manufacturing at the industrial scale. Highlighting the distinctive characteristics of catalysis, the book delves into pivotal topics and subfields. It underscores the revolutionary role catalysis plays in novel design, synthesis, and energy-efficient development, while minimizing side products, promoting atom economy, and embracing green chemistry principles. The comprehensive contents of this book include an array of chapters by experts, each addressing a specific catalytic approach, such as recent advances in electrocatalysis, nano-catalysis for selective oxidation, micellar catalysis, green catalysts, and more. Each of the 7 book chapters includes a summary and list of references for a broad range of readers. Readers will understand the range of chemical engineering strategies that are used to speed up reactions and synthesize molecules of interest. With its rich insights and practical applications, this book serves as an invaluable reference for graduate students, researchers, and professionals across academic and industrial domains.