Numerical and analytical methods with MATLAB for electrical engineers / William Bober and Andrew Stevens.

"The advantage of using the MATLAB software program over other packages is that it contains built-in functions that numerically solve systems of linear equations, systems of ordinary differential equations, roots of transcendental equations, integrals, statistical problems, optimization problem...

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Bibliographic Details
Main Authors: Bober, William, 1930- (Author), Stevens, Andrew, 1964- (Author)
Format: eBook
Language:English
Published: Boca Raton, FL : CRC Press, [2013]
Series:CRC series in computational mechanics and applied analysis.
Subjects:
Online Access:Click for online access
Table of Contents:
  • Numerical Methods for Electrical Engineers Engineering Goals Programming Numerical Solutions Why MATLAB®? The MATLAB® Programming Language Conventions in This Book Example Programs ; MATLAB® Fundamentals The MATLAB® Windows Constructing a Program in MATLAB® MATLAB® Fundamentals MATLAB® Input/Output MATLAB® Program Flow MATLAB® Function Files Anonymous Functions MATLAB® Anonymous Functions MATLAB® Graphics Working with Matrices Working with Functions of a Vector Additional Examples Using Characters and Strings Interpolation and MATLAB®'s interp1 Function MATLAB®'s textscan Function Exporting MATLAB® Data to Excel Debugging a Program The Parallel RLC Circuit ; Matrices Matrix Operations System of Linear Equations Gauss Elimination The Gauss-Jordan.
  • Method Number of Solutions Inverse Matrix The Eigenvalue Problem ; Roots of Algebraic and Transcendental Equations The Search Method Bisection Method Newton-Raphson Method MATLAB®'s fzero and roots Functions ; Numerical Integration Numerical Integration and Simpson's Rule Improper Integrals MATLAB®'s quad Function The Electric Field The quiver Plot MATLAB®'s dblquad Function ; Numerical Integration of Ordinary Differential Equations The Initial Value Problem The Euler Algorithm Modified Euler Method with Predictor-Corrector Algorithm Numerical Error for Euler Algorithms The Fourth-Order Runge-Kutta Method System of Two First-Order Differential Equations A Single Second-Order Equation MATLAB®'s ODE Function Boundary Value Problems Solution of a Tri-Diagonal System of.
  • Linear Equations Method Summary for m equations Difference Formulas One-Dimensional Plate Capacitor Problem ; Laplace Transforms Laplace Transform and Inverse Transform Transforms of Derivatives Ordinary Differential Equations,
  • Initial Value Problem Convolution Laplace Transforms Applied to Circuits Impulse Response ; Fourier Transforms and Signal Processing Mathematical Description of Periodic Signals: Fourier Series Complex Exponential Fourier Series and Fourier Transforms Properties of Fourier Transforms Filters Discrete-Time Representation of Continuous-Time Signals Fourier Transforms of Discrete-Time Signals A Simple Discrete-Time Filter ; Curve Fitting Method of Least Squares Curve Fitting with the Exponential Function MATLAB®'s polyfit Function Cubic Splines The Function interp1 for Cubic Spline Curve Fitting Curve Fitting with Fourier Series ; Optimization Unconstrained Optimization Problems Method of Steepest Descent MATLAB®'s fminunc Function Optimization with Constraints Lagrange.
  • Multipliers MATLAB®'s fmincon Function ; Simulink Creating a Model in Simulink Typical Building Blocks in Constructing a Model Tips for Constructing and Running Models Constructing a Subsystem Using the Mux and Fcn Blocks Using the Transfer Fcn Block Using the Relay and Switch Blocks Trigonometric Function Blocks ; Appendix A: RLC Circuits Appendix B: Special Characters in MATLAB® Plots MATLAB® Function Index.