Estimated Time to Complete
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What You'll Learn
Concepts:
Eigenvalue Method for Linear Systems of ODEs
Solving ODEs with the Laplace Transform
Poles of a Transfer Function
Integrating Factor Method
Bode Plot Analysis
Polar Form of a Complex Number: Modulus and Argument
Fourier Series
Resonance in Forced Oscillations
Characteristic Equation Method
Writing Linear Systems of Differential Equations in Matrix Form
Complex Number Representation for Oscillatory Functions
Frequency Response
Linearization at Fixed Points Using the Jacobian Matrix
Unit Impulse and Unit Step Response of Linear Differential Equations
Analyzing Autonomous Equations Using Phase Lines in Differential Equations
Solving Forced Oscillator Differential Equations Using the Exponential Response Formula
Solving a Second-Order Linear ODE with Periodic Forcing Using Fourier Series
Damped Harmonic Oscillator
Matrix Exponentials for Solving Linear Systems of Differential Equations
Slope Field
Convolution
Phase Plane Analysis
Amplitude Response Function for Forced Damped Oscillators
Using Green's Formula and Convolution to Solve a Linear ODE with Rest Initial Conditions
Euler's Method
Dirac Delta Function
Method of Undetermined Coefficients
Bifurcation and Stability of Equilibria in Dynamical Systems
Laplace Transform
Solving First-Order Linear Differential Equations with Sinusoidal Inputs Using Complex Exponentials
Separable Differential Equations
Identifying Linear First-Order Equations and the Superposition Principle in Differential Equations
Introduction video
No introduction video available
About Dr. Harry Seldon
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