Presents a collection of fundamental and advanced topics on structural optimization methodology. It emphasizes a unified approach, covering essential theories, mathematical programming techniques, and optimality criteria methods used to find the most efficient and cost-effective structural designs. The book explores the application of optimization principles in engineering to systematically ref…
A classic text focusing on the matrix methods of structural analysis, primarily for framed structures (like trusses and rigid frames). It provides a comprehensive introduction to the fundamental concepts and procedures necessary to analyze complex structural systems using computers. Key topics covered include stiffness methods, flexibility methods, equilibrium, compatibility, and the practical …
Presents the formulation and application of the Boundary Element Method (BEM), a prominent numerical technique, for analyzing complex material phenomena, specifically creep and fracture. BEM is a numerical method used to solve boundary value problems in science and engineering. The main focus of this book is on the computational mechanics analysis of materials, including the formulation for the…
A technical guide focused on heavy machinery used in the materials industry, particularly for the processing of minerals, stone, or construction materials. Its content covers the principles of design, operation, and maintenance of conveying (transport), crushing, washing, and screening machinery. Intended for engineers, technicians, and students in the fields of mechanical or mining engineering…
Serves as a foundational introduction to the Finite Element Method (FEM), a powerful numerical technique used to find approximate solutions for complex boundary value problems in engineering and applied mathematics. The author presents key concepts, the mathematical basis (including weighted-residual methods and the Galerkin approach), as well as practical applications of the technique. The met…
This book provides a comprehensive introduction to structural analysis using matrix methods and the finite element displacement approach. D. J. Dawe explains the fundamental principles of structural behavior, focusing on the development of stiffness matrices, displacement formulations, and equilibrium relationships in a systematic and mathematically clear manner. The text covers the formulation…
Finite Element Procedures in Engineering Analysis offers a comprehensive and rigorous presentation of the theory, formulation, and implementation of finite element methods (FEM) used in engineering. The book covers fundamental concepts such as variational principles, discretization, element formulations, interpolation functions, numerical integration, and solution strategies for linear and nonl…
Finite Element Programs for Axisymmetric Problems in Engineering provides a focused and practical introduction to the development and application of finite element programs specifically designed for axisymmetric analysis. The book covers the fundamental principles of the finite element method (FEM), including element formulation, interpolation functions, stiffness matrix development, numerical …
The Finite Element Method in Engineering presents a comprehensive and systematic introduction to the theory and application of the finite element method (FEM) for solving engineering problems. The book covers fundamental concepts such as discretization, element formulation, shape functions, numerical integration, and the assembly of global system equations. Rao explains FEM through variational …
omputational Fluid Dynamics: The Basics with Applications provides a foundational introduction to the principles, mathematics, and numerical methods underlying modern CFD. The book covers governing equations of fluid motion, finite difference and finite volume techniques, grid generation, numerical stability, convergence, and discretization strategies. Anderson explains key concepts such as pot…