Tornado Science offers a deep dive into the world of tornadoes, exploring their formation, destructive power, and how we track them. It clarifies the atmospheric conditions required for these severe weather events, such as the critical role of supercell thunderstorms and wind shear in creating the rotating columns of air. Interestingly, not all supercell thunderstorms produce tornadoes, highlighting the complexity of atmospheric science. The book explains how Doppler radar and storm spotters are used to monitor and predict tornadoes, addressing the challenges of forecasting these unpredictable events. The Enhanced Fujita (EF) Scale, used to rate tornado intensity based on damage, is also examined. Tornado Science progresses logically, starting with basic atmospheric principles and advancing to complex topics like vortex formation and damage assessment, making it a valuable resource for weather enthusiasts and professionals alike. This book stands out by providing a balanced blend of theoretical knowledge and practical applications, avoiding technical jargon while maintaining scientific accuracy. By connecting atmospheric science with real-world impacts, it emphasizes the importance of understanding tornadoes for improved forecasting and mitigation efforts. It emphasizes the interplay between atmospheric conditions, storm structure, and technology.