Sensitivity of Energetic Materials: Prediction and Measurement of Shock, Impact, Friction, and Spark Sensitivity

Sensitivity of Energetic Materials: Prediction and Measurement of Shock, Impact, Friction, and Spark Sensitivity provides an in-depth exploration of the sensitivity of energetic materials, including how compounds such as explosives, propellants, and pyrotechnics respond to various external stimuli (sparks, shocks, impacts, and friction). Starting from foundational principles, the book systematically builds toward advanced experimental techniques and state-of-the-art computational models that predict material sensitivity and behavior. Its primary objectives are to synthesize the latest research, present practical testing methods, and deliver predictive tools that support safer, more innovative work with energetic materials, making it an essential reference for the field. The topic is both significant and timely, given the ongoing development of new energetic compounds, the need for rigorous safety standards, and the growing application of computational and machine learning methods in analytical chemistry and material science. Key themes include the underlying science of sensitivity, experimental protocols, computational and machine learning models, and real-world case studies addressing both established and emerging materials (including nitramines, polynitro arenes, and ionic liquids). The book's structure encompasses theoretical background, measurement techniques, predictive modeling, and practical applications. Its target audience includes academic researchers, postgraduate students, and industry professionals in chemistry, materials science, engineering, defense, aerospace, mining, and industrial safety. By bridging theory and practice, and addressing inconsistencies in testing and data management, the book fills a critical gap in safety and innovation and empowers users to solve real-world problems efficiently, improve safety standards, and stay at the forefront of this rapidly evolving field.