
Nguồn ngoài
General Physics I: Classical Mechanics
- Tác giả
- David and G. Simpson and Larry L. Simpson
- Nhà xuất bản
- Prince George's Community College
- Nguồn
- LibreTexts
- Giấy phép
- CC BY-NC-SA
- Ngôn ngữ
- EN
- Danh mục
- Khoa học cơ bản
Mục lục· 320 mục
- 01: What is Physics
- 02: The Greek Alphabet
- 03: Quotations from the Classical Greek
- 04: Deductive Logic
- 05: Units
- 5.01: Systems of Units
- 5.02: SI Units
- 5.03: Other Systems of Units
- 5.04: Units as an Error-Checking Technique
- 5.05: Unit Conversions
- 5.06: Currency Units
- 5.07: Odds and Ends
- 06: Problem-Solving Strategies
- 07: Density
- 7.01: Density
- 7.02: Specific Gravity
- 7.03: Density Trivia
- 08: Kinematics in One Dimension
- 8.01: Position
- 8.02: Velocity
- 8.03: Acceleration
- 8.04: Higher Derivatives
- 8.05: Dot Notation
- 8.06: Inverse Relations
- 8.07: Constant Acceleration
- 8.08: Summary
- 8.09: Geometric Interpretations
- 8.10: Projects
- 09: Vectors
- 9.01: Introduction to Vectors
- 9.02: Vector Arithmetic- Graphical Methods
- 9.03: Vector Arithmetic- Algebraic Methods
- 9.04: Vector Operations
- 10: The Dot Product
- 10.01: Definition
- 10.02: Component Form
- 10.03: Properties
- 10.04: Matrix Formulation
- 11: Kinematics in Two or Three Dimensions
- 11.01: Position Velocity Acceleration
- 11.02: Constant Acceleration
- 11.03: Vertical vs. Horizontal Motion
- 11.04: Summary
- 12: Projectile Motion
- 12.01: Introduction to Projectile Motion
- 12.02: Range
- 12.03: Maximum Altitude
- 12.04: Shape of the Projectile Path
- 12.05: Hitting a Target on the Ground
- 12.06: Hitting a Target on a Hill
- 12.07: Exploding Projectiles and Other Considerations
- 12.08: The Monkey and the Hunter Problem
- 12.09: Summary
- 13: Newtons Method
- 13.01: The Method
- 13.02: Example- Square Roots
- 13.03: Projectile Problem
- 14: Mass
- 15: Force
- 15.01: The Four Forces of Nature
- 15.02: Hookes Law
- 15.03: Weight Tension and Normal Force
- 16: Newtons Laws of Motion
- 16.01: First Law of Motion
- 16.02: Second Law of Motion
- 16.03: Third Law of Motion
- 17: The Inclined Plane
- 18: Atwoods Machine
- 19: Statics
- 19.01: Mass Suspended by Two Ropes
- 19.02: The Elevator
- 19.03: The Catenary
- 20: Friction
- 20.01: Introduction to Friction
- 20.02: Static Friction
- 20.03: Kinetic Friction
- 20.04: Rolling Friction
- 20.05: The Coefficient of Friction
- 21: Blocks and Pulleys
- 21.01: Horizontal Block and Vertical Block
- 21.02: Inclined Block and Vertical Block
- 22: Resistive Forces in Fluids
- 22.01: Model I F v
- 22.02: Model II- F v
- 23: Circular Motion
- 23.01: Introduction to Circular Motion
- 23.02: Centripetal Force
- 23.03: Centrifugal Force
- 23.04: Relations between Circular and Linear Motion
- 23.05: Examples
- 24: Work
- 24.01: Introduction to Work
- 24.02: Case I- Constant force parallel to the direction of motion
- 24.03: Case II- Constant force at an angle to the direction of motion
- 24.04: Case III- Variable force in the direction of motion
- 24.05: Case IV (General Case)- Variable force along any direction
- 24.06: Summary
- 25: Simple Machines
- 25.01: Inclined Plane
- 25.02: Wheel and Axle
- 25.03: Pulley
- 25.04: Lever
- 25.05: Wedge and Screws
- 25.06: Gears
- 26: Energy
- 26.01: Kinetic Energy
- 26.02: Potential Energy
- 26.03: Other Forms of Energy
- 26.04: Conservation of Energy
- 26.05: The Work-Energy Theorem
- 26.06: The Virial Theorem
- 27: Conservative Forces
- 28: Power
- 28.01: Energy Conversion of a Falling Body
- 28.02: Rate of Change of Power
- 28.03: Vector Equation
- 29: Linear Momentum
- 29.01: Conservation of Momentum
- 29.02: Newtons Second Law of Motion
- 30: Impulse
- 31: Collisions
- 31.01: The Coefficient of Restitution
- 31.02: Perfectly Inelastic Collisions
- 31.03: Perfectly Elastic Collisions
- 31.04: Newtons Cradle
- 31.05: Inelastic Collisions
- 31.06: Collisions in Two Dimensions
- 32: The Ballistic Pendulum
- 33: Rockets
- 33.01: The Rocket Equation
- 33.02: Mass Fraction
- 33.03: Staging
- 34: Center of Mass
- 34.01: Discrete Masses
- 34.02: Continuous Bodies
- 35: The Cross Product
- 35.01: Definition and Forms
- 35.02: Properties
- 35.03: Inverse
- 36: Rotational Motion
- 36.01: Translational vs. Rotational Motion
- 36.02: Problems
- 37: Moment of Inertia
- 37.01: Introduction to the Moment of Inertia
- 37.02: Radius of Gyration
- 37.03: Parallel Axis Theorem
- 37.04: Plane Figure Theorem
- 37.05: Rouths Rule
- 37.06: Lees Rule
- 38: Torque
- 38.01: Introduction to Torque
- 38.02: Rotational Version of Hookes Law
- 39: Measuring the Moment of Inertia
- 39.01: Torque Method
- 39.02: Pendulum Method
- 40: Newtons Laws of Motion- Rotational Versions
- 41: The Pendulum
- 41.01: The Simple Plane Pendulum
- 41.02: The Spherical Pendulum
- 41.03: The Conical Pendulum
- 41.04: The Torsional Pendulum
- 41.05: The Physical Pendulum
- 41.06: Other Pendulums
- 42: Simple Harmonic Motion
- 42.01: Introduction to Simple Harmonic Motion
- 42.02: Energy
- 42.03: Frequency and Period
- 42.04: The Vertical Spring
- 42.05: Mass on a Spring
- 42.06: More on the Spring Constant
- 43: Rocking Bodies
- 43.01: The Half-Cylinder
- 44: Rolling Bodies
- 44.01: Velocity
- 44.02: Acceleration
- 44.03: Kinetic Energy
- 44.04: The Wheel
- 44.05: Ball Rolling in a Bowl
- 45: Galileos Law
- 45.01: Introduction to Galileo's Law
- 45.02: Modern Treatment
- 46: The Coriolis Force
- 46.01: Introduction to the Coriolis Force
- 46.02: Examples
- 47: Angular Momentum
- 47.01: Introduction to Angular Momentum
- 47.02: Conservation of Angular Momentum
- 48: Conservation Laws
- 49: The Gyroscope
- 49.01: Precession
- 49.02: Nutation
- 50: Elasticity
- 50.01: Introduction to Elasticity
- 50.02: Longitudinal (Normal) Stress
- 50.03: Transverse (Shear) StressTranslational
- 50.04: Transverse (Shear) StressTorsional
- 50.05: Volume Stress
- 50.06: Elastic Limit
- 50.07: Summary
- 51: Fluid Statics
- 51.01: Archimedes Principle
- 51.02: Floating Bodies
- 51.03: Pressure
- 51.04: Change in Fluid Pressure with Depth
- 51.05: Pascals Law
- 52: Fluid Dynamics
- 52.01: Introduction to Fluid Dynamics
- 52.02: The Continuity Equation
- 52.03: Bernoullis Equation
- 52.04: Torricellis Theorem
- 52.05: The Siphon
- 52.06: Viscosity
- 52.07: The Reynolds Number
- 52.08: Stokess Law
- 52.09: Fluid Flow through a Pipe
- 52.10: Gases
- 52.11: Superfluids
- 53: Hydraulics and Pneumatics
- 53.01: Hydraulics- The Hydraulic Press
- 53.02: Pneumatics
- 54: Gravity
- 54.01: Newtons Law of Gravity
- 54.02: Gravitational Potential
- 54.03: The Cavendish Experiment
- 54.04: Helmerts Equation
- 54.05: Earth Density Model
- 54.06: Escape Velocity
- 54.07: Gausss Formulation
- 54.08: General Relativity
- 54.09: Black Holes
- 55: Earth Rotation
- 55.01: Precession
- 55.02: Nutation
- 55.03: Polar Motion
- 55.04: Rotation Rate
- 56: Geodesy
- 56.01: Introduction to Geodesy
- 56.02: Radius of the Earth
- 56.03: The Cosine Formula
- 56.04: Vincentys Formul- Introduction
- 56.05: Vincentys Formul- Direct Problem
- 56.06: Vincentys Formul- Inverse Problem
- 57: Celestial Mechanics
- 57.01: Keplers Laws
- 57.02: Time
- 57.03: Orbit Reference Frames
- 57.04: Orbital Elements
- 57.05: Right Ascension and Declination
- 57.06: Computing a Position
- 57.07: The Inverse Problem
- 57.08: Corrections to the Two-Body Calculation
- 57.09: Bound and Unbound Orbits
- 57.10: The Vis Viva Equation
- 57.11: Bertrands Theorem
- 57.12: Differential Equation for an Orbit
- 57.13: Lagrange Points
- 57.14: The Rings of Saturn
- 57.15: Hyperbolic Orbits
- 57.16: Parabolic Orbits
- 58: Astrodynamics
- 58.01: Circular Orbits
- 58.02: Geosynchronous Orbits
- 58.03: Elliptical Orbits
- 58.04: The Hohmann Transfer
- 58.05: Gravity Assist Maneuvers
- 58.06: The International Cometary Explorer
- 59: Partial Derivatives
- 59.01: First Partial Derivatives
- 59.02: Higher-Order Partial Derivatives
- 60: Lagrangian Mechanics
- 60.01: Examples
- 61: Hamiltonian Mechanics
- 61.01: Examples
- 62: Special Relativity
- 62.01: Postulates
- 62.02: Time Dilation
- 62.03: Length Contraction
- 62.04: An Example
- 62.05: Momentum
- 62.06: Addition of Velocities
- 62.07: Energy
- 63: Quantum Mechanics
- 63.01: Review of Newtonian Mechanics
- 63.02: Quantum Mechanics
- 63.03: Example- Simple Harmonic Oscillator
- 63.04: The Heisenberg Uncertainty Principle
- 64: The Standard Model
- 64.01: Matter
- 64.02: Antimatter
- 64.03: Forces
- 64.04: The Higgs Boson
- 65: Further Reading
- 66: Appendices
- 66.01: Greek Alphabet
- 66.02: Trigonometry
- 66.03: Hyperbolic Trigonometry
- 66.04: Useful Series
- 66.05: Table of Derivatives
- 66.06: Table of Integrals
- 66.07: Mathematical Subtleties
- 66.08: SI Units
- 66.09: Gaussian Units
- 66.10: British Engineering Units
- 66.11: Units of Physical Quantities
- 66.12: Physical Constants
- 66.13: Astronomical Data
- 66.14: Unit Conversion Tables
- 66.15: Angular Measure
- 66.16: Vector Arithmetic
- 66.17: Matrix Properties
- 66.18: Newtons Laws of Motion (Original)
- 66.19: The Simple Plane Pendulum- Exact Solution
- 66.20: Motion of a Falling Body
- 66.21: Table of Viscosities
- 66.22: Calculator Programs
- 66.23: Round-Number Handbook of Physics
- 66.24: Short Glossary of Particle Physics
- 66.25: Fundamental Physical Constants Extensive Listing
- 66.26: Periodic Table of the Elements
- 67: References