
Direction Fields and Integral Curves
48:56Euler's Method for Differential Equations
10:17Sinusoidal Inputs
13:47Exploration of the Euler's Method Applet
6:37Euler's Numerical Method for y'=f(x,y) and its Generalizations
50:45Direction Fields in Differential Equations
11:09First-order Constant Coefficient Linear ODE's
13:19Exploration of the Isoclines Applet
10:59First-order Linear ODEs: Steady-state and Transient Solutions
50:22Exploration of the Amplitude and Phase: First Order Applet
8:05Sinusoidal Functions
15:04Separable Equations in Differential Equations
7:19First-Order Substitution Methods: Bernoulli and Homogeneous ODEs
50:14Complex Numbers and Euler's Formula
11:30First-order Autonomous ODEs: Qualitative Methods and Applications
45:46Solutions of First-order Linear Equations
8:56Complex Numbers and Complex Exponentials
45:28Linear Equations in Differential Equations
10:42First-order Linear Differential Equations with Constant Coefficients
41:10Applications to Temperature, Mixing, RC-Circuit, Decay, and Growth Models
50:36Solving Second-order Linear ODE's with Constant Coefficients: The Three Cases
50:01Complex Characteristic Roots; Undamped and Damped Oscillations
46:24Theory of General Second-order Linear Homogeneous ODE's: Superposition, Uniqueness, Wronskians
50:32General Theory for Inhomogeneous ODE's; Stability Criteria for Constant-coefficient ODE's
46:24Finding Particular Solutions to Inhomogeneous ODE's: Operator and Solution Formulas Involving Exponentials
47:56Interpretation of the Exceptional Case: Resonance
44:26Introduction to Fourier Series; Basic Formulas for Period 2π
49:32More General Periods; Even and Odd Functions; Periodic Extension
49:29Finding Particular Solutions via Fourier Series; Resonant Terms; Hearing Musical Sounds
45:47Introduction to the Laplace Transform; Basic Formulas
47:40Derivative Formulas; Using the Laplace Transform to Solve Linear ODE's
51:08Convolution Formula: Proof, Connection with Laplace Transform, Application to Physical Problems
44:20Using Laplace Transform to Solve ODE's with Discontinuous Inputs
44:08A guided exploration of an interactive applet demonstrating amplitude and phase concepts for first-order systems, integral to the MIT 18.03SC Differential Equations course.
Professor of Mathematics at MIT
Haynes Miller is an MIT professor and a leading figure in algebraic topology, known for his work on stable homotopy theory and its applications.