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Outline
- Preface
- Introduction
- Numerical methods for linear inhomogeneous sets of equations
- Interpolation of point sets
- Least squares approximation
- The basic problem
- Mathematical formulation of the problem
- Statistical analysis of the least squares problem
- Model Functions with Linear Parameters
- Model functions with non linear parameters
- Add-ons
- Apps
- Numerical solution of equations
- Numerical Integration
- Numerical integration of point wise integrands
- Trapezoidal rule
- Simpson's rule
- Use of quadrature formulas
- The composite trapezoidal and Simpson formula
- An efficient implementation of the trapezoidal formula
- The programs QTRAP and TRAPZD
- The Romberg method
- The Gaussian quadrature formula
- Numerical calculation of improper integrals
- Variant of the Gaussian quadrature
- Multiple integrals
- Apps
- Eigenvalues and Eigenvectors of real matrices
- Introduction: general and regular eigenvalue problems
- Numerical solution of regular eigenvalue problems
- The method of von Mises
- The method of Jacobi
- Eigenvalues of generic real matrices
- Apps
- Numerical methods for ordinary differential equations: initial value problems
- General considerations
- Expansion of the solution in Taylor series
- Euler's method
- Runge-Kutta Methods
- The programs ODEINT, RKQC and RK4
- The Runge-Kutta-Fehlberg method
- Other numerical methods for initial value problems
- References
- Numerical methods for ordinary differential equations: boundary value problems
- The second-order linear boundary value problem
- Numerical treatment of the inhomogeneous BVP using the difference method
- Numerical solution of the homogeneous BVP using difference method
- The shooting method
- Apps
- Computer supported measurement techniques
- Bibliography
- Fortran library
- Example apps
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