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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
Dynamics: The Laws of Motion
Force and Mass
The Concept of Force
Definition and Units
Force as a Vector
Types of Forces
Contact Forces
Field Forces
The Concept of Inertia and Mass
Inertial Mass
Resistance to Acceleration
Gravitational Mass
Response to Gravitational Fields
Equivalence of Masses
Newton's Laws of Motion
Newton's First Law
Statement and Interpretation
Inertial Reference Frames
Identification
Galilean Relativity
Newton's Second Law
Vector Formulation
F = ma in Vector Form
Component Form
Applications to Variable Mass Systems
Rocket Propulsion
Mass Flow Problems
Newton's Third Law
Statement and Interpretation
Pairs of Forces
Action-Reaction Pairs
Applications and Examples
Walking
Rocket Propulsion
Applying Newton's Laws
Free-Body Diagrams
Drawing and Interpreting Diagrams
Identifying Forces
Contact Forces
Field Forces
Choosing Coordinate Systems
Problem-Solving Strategy
Systematic Approach
Setting Up Equations
Systems of Multiple Objects
Interconnected Objects
Constraint Forces
Pulleys and Constraints
Massless Pulleys
Rope Constraints
Inertial Reference Frames
Definition and Identification
Non-inertial Effects
Fictitious Forces Preview
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5. Common Forces in Mechanics