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Physics
Foundational Physics
Classical Mechanics
1. Introduction to Classical Mechanics
2. Mathematical Preliminaries
3. Kinematics: The Description of Motion
4. Dynamics: The Laws of Motion
5. Common Forces in Mechanics
6. Work and Energy
7. Systems of Particles and Linear Momentum
8. Rotational Motion
9. Static Equilibrium and Elasticity
10. Gravitation
11. Oscillatory Motion
12. Fluid Mechanics
13. Non-Inertial Reference Frames
14. Introduction to Advanced Formulations
Oscillatory Motion
Simple Harmonic Motion
Characteristics of SHM
Restoring Force Proportional to Displacement
Sinusoidal Motion
Mathematical Description
Differential Equation
General Solution
The Mass-Spring System
Equation of Motion
Period and Frequency
T = 2π√(m/k)
Amplitude and Phase
The Simple Pendulum
Small Angle Approximation
Period of Oscillation
T = 2π√(L/g)
Limitations of Approximation
The Physical Pendulum
Moment of Inertia Effects
Parallel Axis Theorem Application
Energy in Simple Harmonic Motion
Kinetic and Potential Energy Exchange
Total Energy Conservation
Energy-Position Relationships
Damped Oscillations
Types of Damping
Light Damping
Critical Damping
Heavy Damping
Mathematical Description
Damping Coefficient
Modified Differential Equation
Exponential Decay
Amplitude Reduction
Quality Factor
Forced Oscillations and Resonance
Driving Forces
Sinusoidal Driving Force
Resonance Phenomenon
Natural Frequency Matching
Amplitude Response
Frequency Dependence
Resonance Curves
Phase Relationships
Driving Force and Response
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12. Fluid Mechanics