The Finite Element Method for Engineers
A useful balance of theory, applications, and real-world examples
The Finite Element Method for Engineers, Fourth Edition presents a clear, easy-to-understand explanation of finite element fundamentals and enables readers to use the method in research and in solving practical, real-life problems. It develops the basic finite element method mathematical formulation, beginning with physical considerations, proceeding to the well-established variation approach, and placing a strong emphasis on the versatile method of weighted residuals, which has shown itself to be important in nonstructural applications.
The authors demonstrate the tremendous power of the finite element method to solve problems that classical methods cannot handle, including elasticity problems, general field problems, heat transfer problems, and fluid mechanics problems. They supply practical information on boundary conditions and mesh generation, and they offer a fresh perspective on finite element analysis with an overview of the current state of finite element optimal design.
Supplemented with numerous real-world problems and examples taken directly from the authors' experience in industry and research, The Finite Element Method for Engineers, Fourth Edition gives readers the real insight needed to apply the method to challenging problems and to reason out solutions that cannot be found in any textbook.
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Meet the Finite Element Method
A Physical Interpretation
A Variational Interpretation
A Generalized Interpretation
Elements and Interpolation Functions
General Field Problems
Heat Transfer Problems
Boundary Conditions Mesh Generation and Other Practical
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algorithm applied approach approximate assembled axisymmetric boundary conditions Chapter coefficient computed constant convection convergence defined degrees of freedom derivatives design sensitivity design variables differential equations discussed displacement eigenvalue eigenvectors elastic element matrices engineering equa evaluate example field variable finite difference finite element analysis finite element method finite element model finite element solution fluid fluid mechanics force Galerkin Galerkin method global gradient heat conduction heat transfer incompressible incompressible flow integration interpolation functions iteration Jacobian linear mass ment mesh method of weighted natural coordinates Navier-Stokes Equations nodal values nodes nonlinear O. C. Zienkiewicz one-dimensional optimization parameters plane stress plate polynomial potential energy pressure problem procedure quadratic radiation reference Ritz method Section shown in Figure solution domain solve specified steady-state stiffness matrix strain stream function structural surface symmetry temperature thermal three-dimensional tion transient triangle triangular elements two-dimensional typical unknown variational velocity components viscous weighted residuals zero Zienkiewicz