
External
JJC Physics 201 Engineering Physics I
- Author
- Andrew Morrison
- Publisher
- Joliet Junior College
- Source
- LibreTexts
- Language
- EN
- Category
- Basic Sciences
Contents· 252 sections
- 01: The Basics of Physics
- 1.01: The Basics of Physics
- 1.02: Units
- 1.03: Significant Figures and Order of Magnitude
- 1.04: Solving Physics Problems
- 1.05: Prelude to Units and Measurement
- 1.06: The Scope and Scale of Physics
- 1.07: Units and Standards
- 1.08: Unit Conversion
- 1.09: Dimensional Analysis
- 1.10: Estimates and Fermi Calculations
- 1.11: Significant Figures
- 1.12: Solving Problems in Physics
- 1.13: Units and Measurement (Answers)
- 1.14: Units and Measurement (Exercises)
- 1.15: Units and Measurement (Summary)
- 02: Kinematics
- 2.1: Basics of Kinematics
- 2.2: Speed and Velocity
- 2.3: Acceleration
- 2.4: Problem-Solving for Basic Kinematics
- 2.5: Free-Falling Objects
- 03: Vectors
- 3.01: Prelude to Vectors
- 3.02: Scalars and Vectors (Part 1)
- 3.03: Scalars and Vectors (Part 2)
- 3.04: Coordinate Systems and Components of a Vector (Part 1)
- 3.05: Coordinate Systems and Components of a Vector (Part 2)
- 3.06: Algebra of Vectors
- 3.07: Algebra of Vectors Examples
- 3.08: Products of Vectors (Part 1)
- 3.09: Products of Vectors (Part 2)
- 3.10: Vectors (Answers)
- 3.11: Vectors (Exercises)
- 3.12: Vectors (Summary)
- 04: Motion Along a Straight Line - with Vectors
- 4.01: Prelude Motion Along a Straight Line
- 4.02: Position Displacement and Average Velocity
- 4.03: Instantaneous Velocity and Speed
- 4.04: Average and Instantaneous Acceleration
- 4.05: Motion with Constant Acceleration (Part 1)
- 4.06: Motion with Constant Acceleration (Part 2)
- 4.07: Free Fall
- 4.08: Finding Velocity and Displacement from Acceleration
- 4.09: Motion Along a Straight Line (Exercises)
- 4.10: Motion Along a Straight Line (Summary)
- 05: Two-Dimensional Kinematics
- 5.01: Prelude to Motion in Two and Three Dimensions
- 5.02: Displacement and Velocity Vectors
- 5.03: Acceleration Vector
- 5.04: Projectile Motion
- 5.05: Uniform Circular Motion
- 5.06: Relative Motion in One and Two Dimensions
- 5.07: Motion in Two and Three Dimensions (Exercises)
- 5.08: Motion in Two and Three Dimensions (Summary)
- 5.09: Motion in Two Dimensions
- 5.10: Vectors Revisited
- 5.11: Projectile Motion Revisited
- 5.12: Multiple Velocities
- 06: The Laws of Motion
- 6.01: Introduction
- 6.02: Force and Mass
- 6.03: Newtons Laws
- 6.04: Other Examples of Forces
- 6.05: Problem-Solving
- 6.06: Vector Nature of Forces
- 6.07: Further Applications of Newtons Laws
- 6.7: Further Applications of Newtons Laws - Copy
- 6.08: Prelude to Newton's Laws of Motion
- 6.09: Forces
- 6.10: Newton's First Law
- 6.11: Newton's Second Law
- 6.12: Mass and Weight
- 6.13: Newtons Third Law
- 6.14: Common Forces
- 6.15: Drawing Free-Body Diagrams
- 6.16: Newton's Laws of Motion (Exercises)
- 6.17: Newton's Laws of Motion (Summary)
- 07: Applications of Newton
- 7.01: Prelude to Applications of Newton's Laws
- 7.02: Solving Problems with Newton's Laws (Part 1)
- 7.03: Solving Problems with Newton's Laws (Part 2)
- 7.04: Friction (Part 1)
- 7.05: Friction (Part 2)
- 7.06: Centripetal Force
- 7.07: Drag Force and Terminal Speed
- 7.08: Applications of Newton's Laws (Exercises)
- 7.09: Applications of Newton's Laws (Summary)
- 7.10: Applications of Newton's Laws
- 7.11: Introduction to UCM and Gravitation
- 7.12: Non-Uniform Circular Motion
- 7.13: Velocity Acceleration and Force
- 7.14: Types of Forces in Nature
- 7.15: Newtons Law of Universal Gravitation
- 7.16: Keplers Laws
- 7.17: Gravitational Potential Energy
- 7.18: Energy Conservation
- 7.19: Angular vs. Linear Quantities
- 08: Work and Energy
- 8.01: Prelude to Work and Kinetic Energy
- 8.02: Work
- 8.03: Kinetic Energy
- 8.04: Work-Energy Theorem
- 8.05: Power
- 8.06: Work and Kinetic Energy (Exercises)
- 8.07: Work and Kinetic Energy (Summary)
- 8.08: Work and Kinetic Energy
- 8.09: Introduction
- 8.10: Work Done by a Constant Force
- 8.11: Work Done by a Variable Force
- 8.12: Work-Energy Theorem
- 8.13: Prelude to Potential Energy and Conservation of Energy
- 8.14: Potential Energy of a System
- 8.15: Conservative and Non-Conservative Forces
- 8.16: Conservation of Energy
- 8.17: Potential Energy Diagrams and Stability
- 8.18: Sources of Energy
- 8.19: Potential Energy and Conservation of Energy (Exercises)
- 8.20: Potential Energy and Conservation of Energy (Summary)
- 8.21: Potential Energy and Conservation of Energy
- 8.22: Power
- 8.23: CASE STUDY: World Energy Use
- 8.24: Further Topics
- 09: Linear Momentum and Collisions
- 9.01: Prelude to Linear Momentum and Collisions
- 9.02: Linear Momentum
- 9.03: Impulse and Collisions (Part 1)
- 9.04: Impulse and Collisions (Part 2)
- 9.05: Conservation of Linear Momentum (Part 1)
- 9.06: Conservation of Linear Momentum (Part 2)
- 9.07: Types of Collisions
- 9.08: Collisions in Multiple Dimensions
- 9.09: Center of Mass (Part 1)
- 9.10: Center of Mass (Part 2)
- 9.11: Rocket Propulsion
- 9.12: Linear Momentum and Collisions (Exercises)
- 9.13: Linear Momentum and Collisions (Summary)
- 9.14: Introduction
- 9.15: Conservation of Momentum
- 9.16: Collisions
- 9.17: Rocket Propulsion
- 9.18: Center of Mass
- 10: Static Equilibrium Elasticity and Torque
- 10.01: Prelude to Static Equilibrium and Elasticity
- 10.02: Conditions for Static Equilibrium
- 10.03: Examples of Static Equilibrium
- 10.04: Stress Strain and Elastic Modulus (Part 1)
- 10.05: Stress Strain and Elastic Modulus (Part 2)
- 10.06: Elasticity and Plasticity
- 10.07: Static Equilibrium and Elasticity (Exercises)
- 10.08: Static Equilibrium and Elasticity (Summary)
- 10.09: Introduction
- 10.10: Conditions for Equilibrium
- 10.11: Stability
- 10.12: Solving Statics Problems
- 10.13: Applications of Statics
- 10.14: Elasticity Stress Strain and Fracture
- 10.15: The Center of Gravity
- 10.16: Torque and Angular Acceleration
- 11: Rotational Kinematics Angular Momentum and Energy
- 11.01: Prelude to Fixed-Axis Rotation Introduction
- 11.02: Rotational Variables
- 11.03: Rotation with Constant Angular Acceleration
- 11.04: Relating Angular and Translational Quantities
- 11.05: Moment of Inertia and Rotational Kinetic Energy
- 11.06: Calculating Moments of Inertia
- 11.07: Torque
- 11.08: Newtons Second Law for Rotation
- 11.09: Work and Power for Rotational Motion
- 11.10: Fixed-Axis Rotation Introduction (Exercises)
- 11.11: Fixed-Axis Rotation Introduction (Summary)
- 11.12: Conservation of Energy
- 11.13: Quantities of Rotational Kinematics
- 11.14: Angular Acceleration
- 11.15: Rotational Kinematics
- 11.16: Dynamics
- 11.17: Rotational Kinetic Energy
- 11.18: Prelude to Angular Momentum
- 11.19: Rolling Motion
- 11.20: Angular Momentum
- 11.21: Conservation of Angular Momentum
- 11.22: Precession of a Gyroscope
- 11.23: Angular Momentum (Exercises)
- 11.24: Angular Momentum (Summary)
- 11.25: Conservation of Angular Momentum
- 11.26: Vector Nature of Rotational Kinematics
- 11.27: Problem Solving
- 11.28: Linear and Rotational Quantities
- 12: Temperature and Kinetic Theory
- 12.01: Temperature and Heat
- Heat Transfer Specific Heat and Calorimetry
- Mechanisms of Heat Transfer
- Phase Changes
- Prelude to Temperature and Heat
- Temperature and Heat (Answer)
- Temperature and Heat (Exercises)
- Temperature and Heat (Summary)
- Temperature and Thermal Equilibrium
- Thermal Expansion
- Thermometers and Temperature Scales
- 12.02: Introduction
- 12.03: Temperature and Temperature Scales
- 12.04: Thermal Expansion
- 12.05: Ideal Gas Law
- 12.06: The Kinetic Theory of Gases
- Distribution of Molecular Speeds
- Heat Capacity and Equipartition of Energy
- Molecular Model of an Ideal Gas
- Prelude to The Kinetic Theory of Gases
- Pressure Temperature and RMS Speed
- The Kinetic Theory of Gases (Answer)
- The Kinetic Theory of Gases (Summary)
- The Kinetic Theory of Gases Introduction (Exercises)
- 12.07: Kinetic Theory
- 12.08: Phase Changes
- 12.09: The Zeroth Law of Thermodynamics
- 12.10: Thermal Stresses
- 12.11: Diffusion
- 13: Heat and Heat Transfer
- 13.1: Introduction
- 13.2: Specific Heat
- 13.3: Phase Change and Latent Heat
- 13.4: Methods of Heat Transfer
- 13.5: Global Warming
- 13.6: Phase Equilbrium
- 14: Thermodynamics
- 14.01: Prelude to The First Law of Thermodynamics
- 14.02: Thermodynamic Systems
- 14.03: Work Heat and Internal Energy
- 14.04: First Law of Thermodynamics
- 14.05: Thermodynamic Processes
- 14.06: Heat Capacities of an Ideal Gas
- 14.07: Adiabatic Processes for an Ideal Gas
- 14.08: The First Law of Thermodynamics (Exercise)
- 14.09: The First Law of Thermodynamics (Answer)
- 14.10: The First Law of Thermodynamics (Summary)
- 14.11: Prelude to The Second Law of Thermodynamics
- 14.12: Reversible and Irreversible Processes
- 14.13: Heat Engines
- 14.14: Refrigerators and Heat Pumps
- 14.15: Statements of the Second Law of Thermodynamics
- 14.16: The Carnot Cycle
- 14.17: Entropy
- 14.18: Entropy on a Microscopic Scale
- 14.19: The Second Law of Thermodynamics (Answer)
- 14.20: The Second Law of Thermodynamics (Exercise)
- 14.21: The Second Law of Thermodynamics (Summary)
- 14.22: Introduction
- 14.23: The First Law of Thermodynamics
- 14.24: The Second Law of Thermodynamics
- 14.25: Entropy
- 14.26: The Third Law of Thermodynamics