This is an archived course. A more recent version may be available at ocw.mit.edu.

Archived Versions

Calendar

The calendar below provides information on the course's lecture (L) and recitation (R) sessions.

SES # TOPICS KEY DATES
I. First-order Differential Equations
L0 Simple Models and Separable Equations  
R1 Natural Growth and Decay  
L1 Direction Fields, Existence and Uniqueness of Solutions  
R2 Direction Fields, Integral Curves, Isoclines  
L2 Numerical Methods  
L3 Linear Equations: Models  
R3 Numerical Methods; Linear Models  
L4 Solution of Linear Equations, Variation of Parameter Problem set 1 due
R4 First Order Linear ODEs: Models and Solutions  
L5 Complex Numbers, Complex Exponentials  
L6 Roots of Unity; Sinusoidal Functions  
L7 Linear System Response to Exponential and Sinusoidal Input; Gain, Phase Lag  
R5 Complex Numbers, Complex Exponentials  
L8 Autonomous Equations; The Phase Line, Stability Problem set 2 due
L9 Linear vs. Nonlinear  
R6 Using the Complex Exponential; Autonomous Equations  
L10 Hour Exam I  
II. Second-order Linear Equations
R7 Solutions to Second Order ODEs  
L11 The Spring-mass-dashpot model; Superposition
Characteristic polynomial; Real Roots; Initial Conditions
 
L12 Complex Roots; Damping Conditions  
R8 Homogeneous Second Order Linear Equations  
L13 Inhomogeneous Equations, Superposition  
R9 Second Order Linear Equations  
L14 Operators and Exponential Signals Problem set 3 due
L15 Undetermined Coefficients  
R10 Operators, Exponential Response, Exponential Shift, Undetermined Coefficients  
L16 Frequency Response  
R11 Superposition, Frequency Response  
L17 Applications: Guest Appearance by EECS Professor Jeff Lang Problem set 4 due
L18 Exponential Shift Law; Resonance  
R12 Review  
L19 Hour Exam II  
III. Fourier Series
R13 Fourier Series: Introduction  
L20 Fourier Series  
L21 Operations on Fourier Series  
R14 Fourier Series: Playing Around  
L22 Periodic Solutions; Resonance  
R15 Fourier Series: Harmonic Response  
IV. The Laplace Transform
L23 Step Function and Delta Function Problem set 5 due
L24 Step Response, Impulse Response  
R16 Step and Delta Functions, and Step and Delta Responses  
L25 Convolution  
R17 Convolution  
L26 Laplace Transform: Basic Properties Problem set 6 due
L27 Application to ODEs; Partial Fractions  
R18 Laplace Transform  
L28 Completing the Square; Time Translated Functions Problem set 7 due
L29 Pole Diagram  
R19 Hour Exam Review  
L30 Hour Exam III  
V. First Order Systems
R20 Systems of First Order Equations  
L31 Linear Systems and Matrices  
L32 Eigenvalues, Eigenvectors  
R21 Eigenvalues and Eigenvectors  
L33 Complex or Repeated Eigenvalues  
R22 Complex or Repeated Eigenvalues  
L34 Qualitative Behavior of Linear Systems; Phase Plane Problem set 8 due
L35 Normal Modes and the Matrix Exponential  
R23 Qualitative Analysis of Linear Systems  
L36 Inhomogeneous Equations: Variation of Parameters Again  
R24 Matrix Exponentials and Inhomogeneous Equations  
L37 Nonlinear Systems Problem set 9 due
L38 Examples of Nonlinear Systems  
R25 Qualitative Analysis of Nonlinear Systems  
L39 Chaos  
R26 Review  
L40 Final Exam