
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 illustrating isoclines, enhancing the understanding of qualitative analysis for differential equations within MIT's 18.03SC curriculum.
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.