Chương 2: Vectơ trong Vật Lý - Định nghĩa, Các Đơn Vị & Ứng Dụng (physics2000.com)

Chương 2 về vectơ CR: Tìm hiểu định nghĩa, các phép toán và ứng dụng của vectơ trong không gian. Khám phá các bài tập và ví dụ minh họa chi tiết.

Trường đại học

Dartmouth College

Chuyên ngành

Physics

Người đăng

Ẩn danh

Thể loại

Student project

2000

1.4K
1
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Phí lưu trữ

30 Point

Mục lục chi tiết

Preface

prefix.1. About the Course

prefix.2. About the Physics2000 CD

prefix.3. Use of the Text Material

prefix.4. About the Author

INTRODUCTION—AN OVERVIEW OF PHYSICS

prefix.1. Space And Time

prefix.2. The Expanding Universe

prefix.3. Structure of Matter

prefix.4. Relativistic Calculations

prefix.5. Approximation Formulas

prefix.6. The Bohr Model

prefix.7. Particle-Wave Nature of Matter

prefix.8. Conservation of Energy

prefix.9. Particle Nature of Forces

prefix.10. Gravity

prefix.11. Displacement Vectors

prefix.12. Arithmetic of Vectors

prefix.13. The Weak Interaction

prefix.14. The Electroweak Theory

prefix.15. The Early Universe

prefix.16. The Thermal Photons

1. CHAPTER 1: PRINCIPLE OF RELATIVITY

1.1. The Principle of Relativity

1.2. A Thought Experiment

1.3. Statement of the Principle of Relativity

1.4. Basic Law of Physics

1.5. Measurement of the Speed of Waves

1.6. Michaelson-Morley Experiment

1.7. Einstein’s Principle of Relativity

1.8. The Special Theory of Relativity

1.9. Moving Clocks

1.10. Real Clocks

1.11. Time Dilation

1.12. Space Travel

1.13. The Lorentz Contraction

1.14. Relativistic Calculations

1.15. Approximation Formulas

1.16. A Consistent Theory

1.17. Lack of Simultaneity

1.18. Particle-Wave Nature of Matter

1.19. Class Handout

2. CHAPTER 2: VECTORS

2.1. Displacement Vectors

2.2. Arithmetic of Vectors

2.3. Rules for Number Arithmetic

2.4. Rules for Vector Arithmetic

2.5. Multiplication of a Vector by a Number

2.6. Magnitude of a Vector

2.7. Graphical Work

2.8. Vector Equations in Component Form

2.9. Vector Multiplication

2.10. The Scalar or Dot Product

2.11. Interpretation of the Dot Product

2.12. Vector Cross Product

2.13. Magnitude of the Cross Product

2.14. Component Formula for the Cross Product

2.15. Right Handed Coordinate System

3. CHAPTER 3: DESCRIPTION OF MOTION

3.1. Displacement Vectors

3.2. A Coordinate System

3.3. Manipulation of Vectors

3.4. Measuring the Length of a Vector

3.5. Coordinate System and Coordinate Vectors

3.6. Analysis of Strobe Photographs

3.7. Determining Acceleration from a Strobe Photograph

3.8. The Acceleration Vector

3.9. Uniform Circular Motion

3.10. Magnitude of the Acceleration for Circular Motion

3.11. An Intuitive Discussion of Acceleration

3.12. Acceleration Due to Gravity

3.13. Projectile Motion with Air Resistance

3.14. A BASIC Program for Projectile Motion

3.15. Instantaneous Velocity from a Strobe Photograph

4. CHAPTER 4: CALCULUS IN PHYSICS

4.1. Limiting Process

4.2. The Uncertainty Principle

4.3. Calculus Definition of Velocity.

4.4. Properties of Mass

4.5. Distance, Velocity and Acceleration versus Time Graphs

4.6. The Constant Acceleration Formulas

4.7. Projectile Motion with Air Resistance

4.8. Solving the Differential Equation

4.9. Solving Projectile Motion Problems

5. CHAPTER 5: COMPUTER PREDICTION OF MOTION

5.1. Step-By-Step Calculations

5.2. Calculating and Plotting a Circle

5.3. Program for Calculation

5.4. The DO LOOP

5.5. The LET Statement

5.6. Plotting a Point

5.7. Prediction of Motion

5.8. Time Step and Initial Conditions

5.9. An English Program for Projectile Motion

5.10. Projectile Motion with Air Resistance

5.11. Air Resistance Program

6. CHAPTER 6: MASS

6.1. Definition of Mass

6.2. Addition of Mass

6.3. A Simpler Way to Measure Mass

6.4. Inertial and Gravitational Mass

6.5. Mass of a Moving Object

6.6. Electron Mass in β Decay

6.7. The Einstein Mass Formula

6.8. Nature’s Speed Limit

6.9. Zero Rest Mass Particles

7. CHAPTER 7: CONSERVATION OF LINEAR & ANGULAR MOMENTUM

7.1. Conservation of Linear Momentum

7.2. Addition of Forces

7.3. Example 1 Rifle and Bullet

7.4. Computer Analysis of the Ball Spring Pendulum

7.5. Conservation of Angular Momentum

7.6. A More General Definition of Angular Momentum

7.7. Angular Momentum as a Vector

7.8. Formation of Planets

8. CHAPTER 8: NEWTONIAN MECHANICS

8.1. The Role of Mass

8.2. Newton’s Second Law

8.3. Newton’s Law of Gravity

8.4. The Cavendish Experiment

8.5. “Weighing” the Earth

8.6. Inertial and Gravitational Mass

8.7. Slowly Moving Particles

8.8. Table 1 Planetary Units

8.9. Computer Prediction of Satellite Orbits

8.10. New Calculational Loop

8.11. Non-Constant Forces

8.12. Calculational Loop for Satellite Motion

8.13. Working Orbit Program

8.14. Projectile Motion Program

8.15. Conservative and Non-Conservative Forces

8.16. Satellite Motion Laboratory

8.17. Zero of Potential Energy

8.18. Kepler's First Law

8.19. Kepler's Second Law

8.20. Modified Gravity and General Relativity

8.21. Conservation of Angular Momentum

9. CHAPTER 9: APPLICATIONS OF NEWTON’S SECOND LAW

9.1. The Spring Pendulum

9.2. The Inclined Plane

9.3. Inclined Plane with Friction

9.4. Coefficient of Friction

9.5. The Atwood’s Machine

9.6. The Conical Pendulum

9.7. Appendix: The ball spring Program

10. CHAPTER 10: ENERGY

10.1. Conservation of Energy

10.2. Ergs and Joules

10.3. Gravitational Potential Energy

10.4. The Dot Product

10.5. Work and Potential Energy

10.6. Potential Energy Stored in a Spring

10.7. Work Energy Theorem

10.8. Conservation of Energy

10.9. Gravitational Potential Energy on a Large Scale

10.10. Gravitational PotentialEnergy in a Room

10.11. Satellite Motion and Total Energy

10.12. Example 4 Escape Velocity

10.13. Kepler's Third Law

10.14. A Practical System of Units

10.15. Conservation of Energy

11. CHAPTER 11: SYSTEMS OF PARTICLES

11.1. Center of Mass

11.2. Center of Mass Formula

11.3. Dynamics of the Center of Mass

11.4. Newton’s Third Law

11.5. Conservation of Linear Momentum

11.6. Momentum Version of Newton’s Second Law

11.7. Example 4 Rod in a Frictionless Bowl

11.8. Example 5 A Bridge Problem

11.9. Calibration of the Force Detector

11.10. The Impulse Measurement

11.11. Change in Momentum

11.12. Momentum Conservation during Collisions

11.13. Collisions and Energy Loss

11.14. Collisions that Conserve Momentum and Energy

11.15. Phase of an Oscillation

11.16. Discovery of the Atomic Nucleus

11.17. Conservation of Energy

11.18. The Harmonic Oscillator

12. CHAPTER 12: ROTATIONAL MOTION

12.1. Simple and Conical Pendulums

12.2. Non Linear Restoring Forces

12.3. Tangential Distance, Velocity and Acceleration

12.4. Angular Momentum of a Bicycle Wheel

12.5. Angular Velocity as a Vector

12.6. Angular Momentum as a Vector

12.7. Angular Mass or Moment of Inertia

12.8. Vector Cross Product

12.9. Right Hand Rule for Cross Products

12.10. Cross Product Definition of Angular Momentum

12.11. The r × p Definition of Angular Momentum

12.12. Angular Analogy to Newton’s Second Law

12.13. Conservation of Angular Momentum

12.14. Speed of Sound Waves

12.15. Linear and nonlinear Wave Motion

12.16. Rotational Kinetic Energy

12.17. Combined Translation and Rotation

12.18. Example—Objects Rolling Down an Inclined Plane

12.19. Proof of the Kinetic Energy Theorem

13. CHAPTER 13: EQUILIBRIUM

13.1. Equations for equilibrium

13.2. Example 1 Balancing Weights

13.3. Gravitational Force acting at the Center of Mass

13.4. Technique of Solving Equilibrium Problems

13.5. Example 3 Wheel and Curb

13.6. Lifting Weights and Muscle Injuries

14. CHAPTER 14: OSCILLATIONS AND RESONANCE

14.1. Change in Momentum

14.2. The Sine Wave

14.3. Mass on a Spring;Analytic Solution

14.4. The Torsion Pendulum

14.5. The Simple Pendulum

14.6. Damped Harmonic Motion

14.7. Appendix 14–1 Solution of the Differential Equation for Forced Harmonic Motion

14.8. Appendix 14-2 Computer analysis of oscillatory motion

14.9. Calculating Moments of Inertia

14.10. The BASIC Program

14.11. Damped Harmonic Motion

15. CHAPTER 15: ONE DIMENSIONAL WAVE MOTION

15.1. The r × p Definition of Angular Momentum

15.2. Speed of a Wave Pulse

15.3. The Principle of Superposition

15.4. Wavelength, Period, and Frequency

15.5. Combined Translation and Rotation

15.6. Spacial Frequency k

15.7. Traveling Wave Formula

15.8. Phase and Amplitude

15.9. Waves on a Guitar String

15.10. Frequency of Guitar String Waves

15.11. Sound Produced by a Guitar String

16. CHAPTER 16: FOURIER ANALYSIS, NORMAL MODES AND SOUND

16.1. Introduction

16.2. Normal Modes of Oscillation

16.3. Specific Heats CV and Cp

16.4. Analysis of a Sine Wave

16.5. Analysis of a Square Wave

16.6. Analysis of the Coupled Air Cart System

16.7. The Human Ear

16.8. Energy Flow Diagrams

16.9. Bells and Decibels

16.10. Applications of the Second Law

16.11. Appendix A: Fourier Analysis Lecture

16.12. Calculating Fourier Coefficients

16.13. Amplitude and Phase

16.14. Amplitude and Intensity

16.15. Appendix B: Inside the Cochlea

17. CHAPTER 17: ATOMS, MOLECULES AND ATOMIC PROCESSES

17.1. Molecules

17.2. Atomic Processes

17.3. The Four Basic Interactions

17.4. Strength of the Electric Interaction

17.5. Addition of Charge

17.6. Conservation of Charge

17.7. The Ideal Gas Law

17.8. Ideal Gas Thermometer

17.9. The Mercury Barometer and Pressure Measurements

17.10. Molecular Forces—A More Quantitative Look

17.11. Electron Binding Energy

17.12. Electron Volt as a Unit of Energy

17.13. Molar Heat Capacity

17.14. Molar Specific Heat of Helium Gas

17.15. Equipartition of Energy

17.16. Freezing Out of Degrees of Freedom

17.17. Elasticity of Rubber

17.18. A Model of Rubber

18. CHAPTER 18: ENTROPY

18.1. Work Done by an Expanding Gas

18.2. Isothermal Expansion and PV Diagrams

18.3. Isothermal Expansion of an Ideal Gas

18.4. Repeated Wave Forms

18.5. The Carnot Cycle

18.6. Thermal Efficiency of the Carnot Cycle

18.7. Maximally Efficient Engines

18.8. The Heat Pump

18.9. The Internal Combustion Engine

18.10. The Direction of Time

18.11. Appendix: Calculation of the Efficiency of a Carnot Cycle

18.12. The Carnot Cycle

19. CHAPTER 19: THE ELECTRIC INTERACTION

19.1. The Electric Force Law

19.2. Positive and Negative Charge

19.3. Stability of Matter

19.4. Quantization of Electric Charge

19.5. Hydrogen Molecule

19.6. The Bonding Region

19.7. Electron Energy in the Hydrogen Molecule Ion

20. CHAPTER 20: NUCLEAR MATTER

20.1. Range of the Nuclear Force

20.2. Failure of Classical Physics

20.3. Neutrons and the Weak Interaction

20.4. Nuclear Binding Energies

20.5. Neutron Stars and Black Holes

23. CHAPTER 23: FLUID DYNAMICS

23.1. The Current State of Fluid Dynamics

23.2. The Velocity Field

23.3. The Vector Field

23.4. Negative and Positive Potential Energy

23.5. Velocity Field of a Point Source

23.6. Velocity Field of a Line Source

23.7. Applications of Bernoulli’s Equation

23.8. Leaky Tank

23.9. Airplane Wing

23.10. The Venturi Meter

23.11. Surface Charge Density

23.12. Care in Applying Bernoulli’s Equation

23.13. Town Water Supply

23.14. Quantized Vortices in Superfluids

24. CHAPTER 24: COULOMB'S AND GAUSS' LAW

24.1. Equipotential Plot

24.2. Electron Volt as a Unit of Energy

24.3. Checking Units in MKS Calculations

24.4. Example 1 Two Charges

24.5. Example 2 Hydrogen Atom

24.6. Force Produced by a Line Charge

24.7. The Electric Field

24.8. Unit Test Charge

24.9. Mapping the Electric Field

24.10. Continuity Equation for Electric Fields

24.11. Conserved Field Lines

24.12. Capacitance and Capacitors

24.13. Cylindrical Tank as a Constant Voltage Source

24.14. Electric Field of a Line Charge

24.15. Energy Storage in Capacitors

24.16. Area as a Vector

24.17. Gauss' Law for the Gravitational Field

24.18. Gravitational Field of a Point Mass

24.19. Gravitational Field of a Spherical Mass

24.20. Gravitational Field Inside the Earth

24.21. Solving Gauss' Law Problems

24.22. The Neon Bulb Oscillator

24.23. The Neon Bulb

25. CHAPTER 25: FIELD PLOTS AND ELECTRIC POTENTIAL

25.1. The Contour Map

25.2. Electric Potential of a Point Charge

25.3. A Field Plot Model

26. CHAPTER 26: ELECTRIC FIELDS AND CONDUCTORS

26.1. Electric Field Inside a Conductor

26.2. Example: Field in a Hollow Metal Sphere

26.3. Van de Graaff generator

26.4. The Electron Gun

26.5. About Computer Plots

26.6. The Parallel Plate Capacitor

27. CHAPTER 27: BASIC ELECTRIC CIRCUITS

27.1. Positive and Negative Currents

27.2. The Electric Field

27.3. Current and Voltage

27.4. Electric Field lines

27.5. The Short Circuit

27.6. Application of Kirchoff’s Law

27.7. Energy Density in an Electric Field

27.8. Capacitors as Circuit Elements

27.9. The RC Circuit

27.10. The Time Constant RC

27.11. Gravitational Field

27.12. The Exponential Rise

27.13. The Neon Oscillator Circuit

27.14. Period of Oscillation

28. CHAPTER 28: MAGNETISM

30. CHAPTER 30: FARADAY'S LAW

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Huggins Dartmouth College physics2000.com MKS Units (link to CGS Units) m = meters kg = kilograms s = seconds N = newtons J = joules C = coulombs T = tesla F = farads H = henrys Powers of 10 A = amperes K = kelvins mol = mole Power Prefix Symbol speed of light c 3.00 × 10 8 m / s 10 12 tera T gravitational constant G 6.67 × 10 –11N⋅m2 / kg 2 10 9 giga G permittivity constant ε0 8.85 × 10 – 12F / m 10 6 mega M permeability constant µ0 1.26 × 10 –6 H/m 10 3 kilo k elementary charge e 1.60 × 10 –19 C 10 2 hecto h electron volt eV 1.60 × 10 –19 J 10 – 1 deci d electron rest mass me 9.11 × 10 – 31 kg 10 – 2 centi c proton rest mass mp 1.67 × 10 – 27 kg 10 – 3 milli m Planck constant h 6.63 × 10 – 34 J⋅ s 10 – 6 micro µ Planck constant / 2 π h 1.06 × 10 – 34 J⋅ s 10 – 9 nano n Bohr radius rb 5.29 × 10 – 11m 10 – 12 pico p 10 – 15 femto f Bohr magneton µb 9.38 × 10 –23J / K Avogadro constant NA 6.02 × 10 23mol – 1 universal gas constant R 8.31 J /mol⋅ K Dimensions Quantity Unit Equivalents Force newton N J/m kg •m/ s2 Energy joule J N• m kg • m2/s2 2 3 Power watt W J/s kg • m /s 2 Pressure pascal Pa N/m 2 kg/m• s Frequency hertz Hz cycle/s s–1 Electric charge coulomb C A•s Electric potential volt V J/C kg • m2/A • s3 Ω 2 2 3 Electric resistance ohm V/A kg • m /A • s 2 4 2 Capacitance farad F C/V A • s /kg • m 2 Magnetic field tesla T N • s/C • m kg/A • s 2 2 2 Magnetic flux weber Wb T• m kg • m /A• s Inductance henry H V• s/A kg • m2/A2• s2 Copyright © 2000 Moose Mountain Digital Press Etna, New Hampshire 03750 All rights reserved www.com Preface & TOC-i Physics2000 Student project by Bob Piela explaining the hydrogen molecule ion. Huggins Department of Physics Dartmouth College Hanover, New Hampshire i www.com Preface & TOC-iii Preface ABOUT THE COURSE Most students experience difficulty when they first Physics2000 is a calculus based, college level introduc- encounter abstract concepts like vector fields and Gauss’ tory physics course that is designed to include twentieth law. To provide a familiar model for a vector field, we century physics throughout. This is made possible by begin the section on electricity and magnetism with a introducing Einstein’s special theory of relativity in the chapter on fluid dynamics.

It is easy to visualize the first chapter. This way, students start off with a modern velocity field of a fluid, and Gauss’ law is simply the picture of how space and time behave, and are prepared statement that the fluid is incompressible. We then show to approach topics such as mass and energy from a that the electric field has mathematical properties simi- modern point of view. lar to those of the velocity field.

The course, which was developed during 30 plus years The format of the standard calculus based introductory working with premedical students, makes very gentle physics text is to put a chapter on special relativity assumptions about the student’s mathematical back- following Maxwell’s equations, and then put modern ground. All the calculus needed for studying Phys- physics after that, usually in an extended edition. This ics2000 is contained in a supplementary chapter which format suggests that the mathematics required to under- is the first chapter of a physics based calculus text. We stand special relativity may be even more difficult than can cover all the necessary calculus in one reasonable the integral-differential equations encountered in length chapter because the concepts are introduced in Maxwell’s theory.

Such fears are enhanced by the the physics text and the calculus text only needs to strangeness of the concepts in special relativity, and are handle the formalism. (The remaining chapters of the driven home by the fact that relativity appears at the end calculus text introduce the mathematical tools and con- of the course where there is no time to comprehend it. cepts used in advanced introductory courses for physics This format is a disaster. and engineering majors.

These chapters will appear on Special relativity does involve strange ideas, but the a later version of the Physics2000 CD, hopefully next mathematics required is only the Pythagorean theorem.) By placing relativity at the beginning of the course you In the physics text, the concepts of velocity and accelera- let the students know that the mathematics is not diffi- tion are introduced through the use of strobe photo- cult, and that there will be plenty of time to become graphs in Chapter 3. How these definitions can be used familiar with the strange ideas. By the time students to predict motion is discussed in Chapter 4 on calculus have gone through Maxwell’s equations in Physics2000, and Chapter 5 on the use of the computer. they are thoroughly familiar with special relativity, and are well prepared to study the particle-wave nature of Students themselves have made major contributions to matter and the foundations of quantum mechanics.

This the organization and content of the text. Student’s material is not in an extended edition because there is of enthusiasm for the use of Fourier analysis to study time to cover it in a comfortably paced course. musical instruments led to the development of the MacScope™ program. The program makes it easy to use Fourier analysis to study such topics as the normal modes of a coupled aircart system and how the energy- time form of the uncertainty principle arises from the particle-wave nature of matter.com Preface & TOC-iv ABOUT THE PHYSICS2000 CD ABOUT THE AUTHOR The Physics2000 CD contains the complete Physics2000 E.

Huggins has taught physics at Dartmouth College text in Acrobat™ form along with a supplementary since 1961. He was an undergraduate at MIT and got his chapter covering all the calculus needed for the text. thesis under Richard Included on the CD is a motion picture on the time Feynman was on aspects of the quantum theory of dilation of the Muon lifetime, and short movie segments gravity and the non uniqueness of energy momentum of various physics demonstrations. Also a short cook- tensors.

Since then most of his research has been on book on several basic dishes of Caribbean cooking. The superfluid dynamics and the development of new teach- CD is available at the web site ing tools like the student built electron gun and MacScope™. He wrote the non calculus introductory www.com physics text Physics1 in 1968 and the computer based text Graphical Mechanics in 1973. The Physics2000 The cost is $10.

text, which summarizes over thirty years of experiment- Also available is a black and white printed copy of the ing with ways to teach physics, was written and class text, including the calculus chapter and the CD, at a cost tested over the period from 1990 to 1998. All the work of $ 39 plus shipping. of producing the text was done by the author, and his wife, Anne Huggins. The text layout and design was The supplementary calculus chapter is the first chapter done by the author’s daughter Cleo Huggins who de- of a physics based calculus text which will appear on a signed eWorld™ for Apple Computer and the Sonata™ later edition of the Physics2000 CD.

As the chapters are music font for Adobe Systems. ready, they will be made available on the web site. The author’s eMail address is Use of the Text Material lish.edu Because we are trying to change the way physics is taught, Chapter 1 on special relativity, although copy- The author is glad to receive any comments. righted, may be used freely (except for the copyrighted photograph of Andromeda and frame of the muon film).

All chapters may be printed and distributed to a class on a non profit basis.com Preface & TOC-i Table of Contents PART 1 CHAPTER 1 PRINCIPLE OF RELATIVITY Front Cover MKS Units. Front cover-2 The Principle of Relativity. Front cover-2 A Thought Experiment. Front cover-2 Statement of the Principle of Relativity.

1-4 Basic Law of Physics. 1-6 Preface Measurement of the Speed of Waves. 1-7 About the Course. iii Michaelson-Morley Experiment.

1-11 About the Physics2000 CD. iv Einstein’s Principle of Relativity. 1-12 Use of the Text Material. iv The Special Theory of Relativity.

1-13 About the Author. iv Moving Clocks. 1-18 INTRODUCTION—AN OVERVIEW OF PHYSICS Real Clocks. 1-20 Space And Time.

int-2 Time Dilation. 1-22 The Expanding Universe. int-3 Space Travel. 1-22 The Lorentz Contraction.

1-24 Structure of Matter. int-5 Relativistic Calculations. int-5 Approximation Formulas. int-8 A Consistent Theory.

1-32 The Bohr Model. int-8 Lack of Simultaneity. 1-32 Particle-Wave Nature of Matter. 1-36 Conservation of Energy.

int-12 Class Handout. 1-39 Particle Nature of Forces. int-14 CHAPTER 2 VECTORS Gravity. int-16 Displacement Vectors.

int-17 Arithmetic of Vectors. int-19 Rules for Number Arithmetic. 2-4 The Weak Interaction. int-20 Rules for Vector Arithmetic.

int-21 Multiplication of a Vector by a Number. int-22 Magnitude of a Vector. int-22 Graphical Work. 2-8 The Electroweak Theory.

int-26 Vector Equations in Component Form. 2-10 The Early Universe. int-27 Vector Multiplication. 2-11 The Thermal Photons.

int-29 The Scalar or Dot Product. 2-12 Interpretation of the Dot Product. 2-14 Vector Cross Product. 2-15 Magnitude of the Cross Product.

2-17 Component Formula for the Cross Product. 2-17 Right Handed Coordinate System .com Preface & TOC-ii CHAPTER 3 DESCRIPTION OF MOTION CHAPTER 5 COMPUTER PREDICTION OF Displacement Vectors. 3-5 MOTION A Coordinate System. 3-7 Step-By-Step Calculations.

5-2 Manipulation of Vectors. 3-8 Calculating and Plotting a Circle. 5-2 Measuring the Length of a Vector. 3-9 Program for Calculation.

5-4 Coordinate System and Coordinate Vectors. 3-11 The DO LOOP. 5-4 Analysis of Strobe Photographs. 3-11 The LET Statement.

5-6 Determining Acceleration Plotting a Point. 5-6 from a Strobe Photograph. 5-7 The Acceleration Vector. 5-8 Uniform Circular Motion.

5-10 Magnitude of the Acceleration for Circular Motion 3-18 Prediction of Motion. 5-12 An Intuitive Discussion of Acceleration. 3-20 Time Step and Initial Conditions. 5-14 Acceleration Due to Gravity.

3-21 An English Program for Projectile Motion. 5-16 Projectile Motion with Air Resistance. 3-22 A BASIC Program for Projectile Motion. 3-24 Projectile Motion with Air Resistance.

5-22 Instantaneous Velocity from a Strobe Photograph 3-26 Air Resistance Program. 5-24 CHAPTER 4 CALCULUS IN PHYSICS CHAPTER 6 MASS Limiting Process. 4-1 Definition of Mass. 6-2 The Uncertainty Principle.

6-2 Calculus Definition of Velocity. 4-3 Properties of Mass. 4-6 Addition of Mass. 6-4 Distance, Velocity and A Simpler Way to Measure Mass.

6-4 Acceleration versus Time Graphs. 4-7 Inertial and Gravitational Mass. 6-5 The Constant Acceleration Formulas. 4-9 Mass of a Moving Object.

6-6 Projectile Motion with Air Resistance. 4-14 Electron Mass in β Decay. 6-7 Solving the Differential Equation. 6-8 Solving Projectile Motion Problems.

4-19 The Einstein Mass Formula. 6-10 Nature’s Speed Limit. 6-11 Zero Rest Mass Particles .com Preface & TOC-iii CHAPTER 7 CONSERVATION OF LINEAR & CHAPTER 9 APPLICATIONS OF NEWTON’S ANGULAR MOMENTUM SECOND LAW Conservation of Linear Momentum. 7- 2 Addition of Forces.

7- 7 The Spring Pendulum .

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