Solid-Shell Finite Element Modeling of Functionally Graded Structures explores advanced computational methods for analyzing modern engineered materials. By introducing innovative solid-shell finite element formulations, it bridges the gap between traditional shell and solid elements, offering computational efficiency while maintaining the three-dimensional resolution needed to accurately capture stress states and deformation behaviors.
This book provides a robust framework for understanding and applying advanced solid-shell finite element models, developed using the proprietary MPEF software created by Professor Fakhreddine Dammak. It integrates enhanced kinematic theories, including First-Order Shear Deformation Theory (FSDT) and Higher-Order Shear Deformation Theory (HOSDT), to enable precise mechanical analysis under both thermal and mechanical loading conditions. Readers will gain insights from detailed parametric studies, validation against established benchmarks, and practical applications to cutting-edge materials such as FG porous structures and FG carbon nanotube-reinforced composites. The content is structured to guide readers methodically from foundational theoretical concepts to solving complex, real-world engineering problems.
An essential resource for researchers, graduate students, and engineers specializing in computational mechanics, materials science, and structural engineering, the text offers the insights and methodologies needed to advance expertise in areas such as designing next-generation functionally graded structures, or seeking reliable tools for mechanical analysis.