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LECTURES
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Ch/Sect |
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2
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1
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Introduction
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1.0
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Some
famous ordinary differential equations, some basic methods, and
some mathematical background
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1.1
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First
order systems
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1.2
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Existence
and Uniqueness Theorems, including Grönwall's Inequality
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Dependence
on Parameters, and Continuation, Theorems
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4
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2
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Linear
Equations
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2.1
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Existence
and Uniqueness
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2.2
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Homogeneous
Linear Systems
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2.3
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Inhomogeneous
Linear Systems
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2.4
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Second
order linear equations
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2.5
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Linear
equations with constant coefficients
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4
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3
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Linear
Equations with Periodic Coefficients
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3.1
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Floquet
Theory
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3.2
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Parametric
resonance
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3.3
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Perturbation
methods for the Mathieu equation
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3.4
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The
Mathieu equation with damping
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4
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4
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Stability
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4.1
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Preliminary
definitions
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4.2
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Stability
for linear systems
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4.3
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Principle
of linearized stability
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4.4
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Stability
for autonomous systems
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4.5
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Liapunov
functions
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3
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5
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Planar
Autonomous Systems
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5.1
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Critical
points
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5.2
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Linear
autonomous systems
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5.3
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Autonomous,
nonlinear perturbations of linear autonomous
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2
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6
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Periodic
Solutions of Plane Autonomous Systems
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6.1
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Preliminary
results
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6.2
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The
index of a critical point
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6.3
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The
Van der Pol equation
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6.4
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Conservative
systems
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???
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7
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Perturbation
Methods for Periodic Solutions
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7.1
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Poincaré-Lindstedt
method
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7.2
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Poincaré-Lindstedt
method, continued
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???
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8
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Perturbation
Methods for Forced Oscillations
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8.1
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Non-resonant
case
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8.2
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Non-resonant
case, continued
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???
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The
method of Liapunov-Schmidt
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