Impact Mechanics of Ceramic Armor

Grab the definitive resource on high-performance protective materials with Impact Mechanics of Ceramic Armor — a rigorous, accessible study by Xianfeng Zhang; Mengting Tan; Wei Xiong; Chuang Liu. This authoritative volume decodes how ceramic systems respond to high-velocity impact, blending theory, experiments, and modeling to deliver actionable insight for designers and researchers.

From microstructure-controlled failure to macroscopic ballistic response, the book demystifies fracture mechanisms, energy absorption, and plug formation under extreme loading. Clear explanations of constitutive models, high-strain-rate testing techniques, and advanced numerical simulations (including finite element strategies) make complex concepts practical for real-world applications. Case studies illustrate performance trade-offs for monolithic ceramics, functionally graded layers, and ceramic-composite hybrid armors used across defense, aerospace, and civilian sectors.

Engineers, materials scientists, defense manufacturers, and academic researchers will find the detailed treatment valuable for improving ballistic protection, optimizing lightweight armor systems, and accelerating product development. The text also serves as a concise reference for graduate courses on impact dynamics, fracture mechanics, and protective materials engineering.

Whether you’re developing next-generation vehicle armor, aircraft protection, or personal body armor, this book supplies the scientific foundation and engineering tools to innovate with confidence. Navigate the challenges of ceramic brittleness, multi-scale modeling, and performance validation with a single, practical guide.

Enhance your library with Impact Mechanics of Ceramic Armor — an essential, globally relevant resource for anyone shaping the future of ballistic protection. Order your copy today to advance your projects with proven science and cutting-edge methods.

Note: eBooks do not include supplementary materials such as CDs, access codes, etc.