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Physics
Fundamentals
by Dr Vincent Coletta - Wins
Mac
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PDF Format - 900 pages |
Shipped in 9 days |
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Algebra-Based
Introductory Physics Text on CD
Dr. Coletta's popular textbook is now available on CD! Physics Fundamentals
by Vincent Coletta meets the needs of all algebra-trigonometry based college
physics courses. It is also appropriate for advanced high school physics
courses, AP physics courses, or as an additional text to a lower-level high
school text that requires more substantive content and engaging problems.
In developing the text, Dr. Coletta conducted extensive student reviews and
thorough class testing to ensure the text is understandable and interesting
to a wide-range of students. Thousands of students used Physics Fundamentals
in manuscript form, and peer review panels examined the material for clarity
and accuracy. This extraordinary development effort has produced a text that
is exceptional in its use of direct, concise language to convey ideas and
its explanation of difficult concepts.
Chapters open with an overview of how physics concepts relate to topics of
interest to students. Wherever possible, abstract physical concepts are
introduced by appealing to common experiences that illustrate the concepts.
Numerous applications of physics to biology, technology, sports, and
everyday life are included throughout each chapter.
Derivations are sometimes integrated in the text and sometimes presented at
the end of a section or chapter. This flexible organization allows the
author to present the mathematical explanation at the most appropriate place
to enhance student understanding, and ensures that a level of qualitative
understanding has been reached before the mathematical foundations of the
concept are introduced.
The art program is unsurpassed in a physics text. 1500 photographs and
illustrations help clarify physics concepts for today's visual learners.
Three-dimensional perspective drawings are used extensively throughout the
text and illustrations often accompany examples.
Two kinds of essays are provided throughout the text: In Perspective
historical essays and Closer Look essays that involve physical concepts or
applications. The In Perspective essays are mainly short biographies of
physicists who have made some of the most important discoveries in physics.
They offer enough depth to humanize their subjects and sometimes to help
understand what motivated their discoveries. The Closer Look essays are
discussions of physical principles and applications that encourage the
student to think about subjects likely to arouse interest.
- Text is comprised of 30 Chapters, 900 pages, and
1500 photographs and illustrations.
- Numerous applications of physics to biology,
technology, and sports; illustrating the relevance and
applicability of physics to students’ lives.
- Abstract physical concepts are introduced by
appealing to common experiences that illustrate the
concepts.
- Illustrated questions and problems allow students to
visualize the situations described.
- Over 300 worked examples — a general problem solving
strategy is outlined and then reinforced in the solution
of examples throughout the book.
- 2000 end-of-chapter questions and problems. Many
reviewers have praised the originality and effectiveness
of the problems.
- 1,000 page Instructor’s Solution Manual in PDF
format included on separate CD.
Table of Contents:
Introduction
Measurement and Units
1. Description of Motion
1-1 Trajectory of a Particle
1-2 Speed
1-3 Displacement
1-4 Vector Algebra
1-5 Components of Vectors
1-6 Velocity
1-7 Problem Solving Strategy
2. Motion in a Straight Line
2-1 Acceleration in One Dimension
2-2 Linear Motion at Constant Acceleration
2-3 Free Fall
Closer Look Essay: Free Fall in Air
2-4 Graphical Analysis of Linear Motion
In Perspective Essay: Galileo Galilei
3. Motion in a Plane
3-1 Acceleration on a Curved Path
3-2 Projectile Motion
3-3 Circular Motion
3-4 Reference Frames and Relative Motion
4. Newton's Laws of Motion
4-1 Classical Mechanics
4-2 Force
4-3 Newton's First Law
4-4 Mass
4-5 Newton's Second and Third Laws
4-6 Force Laws
4-7 The Concept of Force
4-8 Applications of Newton's Laws of Motion
5. Friction and Other Applications
of Newton's Laws
5-1 Friction
Closer Look Essay: Microscopic Description
of Friction
5-2 Centripetal Force
5-3 Center of Mass
6. Gravitation
6-1 Universal Gravitation
6-2 Gravitational Attraction of the Earth
6-3 Noninertial Reference Frames
In Perspective Essay: Origins of the Theory
of Universal Gravitation
In Perspective Essay: Isaac Newton
7. Energy
7-1 Work and Kinetic Energy
7-2 Gravitational Potential Energy; Constant
Gravitational Force
7-3 Gravitational Potential Energy; Variable
Gravitational Force
7-4 Spring Potential Energy; Conservation
of Energy
7-5 Conservative and Non-Conservative
Forces
7-6 Power
Closer Look Essay: The Energy to Run
7-7 Energy of a System of Particles
8. Momentum
8-1 Impulse and Linear Momentum
8-2 Momentum of a System of Particles;
Conservation of Linear Momentum
8-3 Collisions and Kinetic Energy
9. Rotation
9-1 Description of Rotational Motion
9-2 Torque
9-3 Dynamics of Rotation About a Fixed Axis
9-4 Rotational Kinetic Energy
9-5 Angular Momentum
9-6 Energy Analysis of Running
10. Static Equilibrium
10-1 Conditions for Static Equilibrium
10-2 Center of Gravity
10-3 Stress and Strain
11. Fluids
11-1 Properties of Fluids
11-2 Pressure in a Fluid at Rest
11-3 Archimedes' Principle
11-4 Surface Tension and Capillarity
11-5 Fluid Dynamics; Bernoulli's Equation
11-6 Viscosity
11-7 Poiseuille's Law
12. Temperature and Kinetic Theory
12-1 Temperature Measurement
12-2 Ideal Gas Law
12-3 Kinetic Theory; Model of an Ideal Gas
12-4 Derivation of the Ideal Gas Law
12-5 Vapor Pressure and Humidity
12-6 Thermal Expansion
13. Heat
13-1 Definition of Heat
13-2 Calorimetry
13-3 Radiation
13-4 Convection
13-5 Conduction
14. Thermodynamics
14-1 Thermodynamic Systems
14-2 First Law of Thermodynamics
14-3 Heat Engines and Refrigerators
14-4 Second Law of Thermodynamics
14-5 Human Metabolism
15. Harmonic Motion
15-1 Simple Harmonic Motion
15-2 Relationship Between SHM and
Circular Motion
15-3 Mass and Spring
15-4 The Pendulum
15-5 Damped and Forced Oscillations
16. Mechanical Waves; Sound
16-1 Description of Waves
16-2 Wave Speed
16-3 Moving Sources and Observers: The
Doppler Effect
16-4 Power and Intensity; The Decibel Scale
16-5 Time Dependence of the Displacement
of a Particle of the Medium
16-6 Superposition of Waves; Beats;
Standing Waves
Closer Look Essay: The Ear
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17. The Electric Field
17-1 Electric Charge
17-2 Coulomb's Law
17-3 The Electric Field
17-4 Fields Produced by Continuous
Distributions of Charge
17-5 Field Lines
18. Electric Potential
18-1 Electric Potential Energy and Electric
Potential
18-2 Capacitance
18-3 Dielectrics
18-4 The Oscilloscope
19. Electric Current
19-1 Electric Current
19-2 Ohm's Law
19-3 Electric Power; Batteries and AC
Sources
Closer Look Essay: Superconductivity
19-4 Electric Current and Ohm's Law on
the Microscopic Level
20. Direct Current Circuits
20-1 Description of Circuits
20-2 Kirchhoff's Rules
20-3 Equivalent Resistance
20-4 Multiloop Circuits
20-5 Measurement of Current, Potential
Difference, and Resistance
20-6 RC Circuits
Closer Look Essay: Electrical Effects in the Human
Body
20-7 Electric Shock and Household
Electricity
21. Magnetism
21-1 The Magnetic Field
21-2 Magnetic Forces on Current-Carrying
Conductors
21-3 Motion of a Point Charge in a
Magnetic Field
21-4 Magnetic Fields Produced by Electric
Currents
21-5 Magnetic Fields Produced by
Permanent Magnets
21-6 Magnetic Materials
Closer Look Essay: Biomagnetism
22. Electromagnetic Induction and AC
Circuits
22-1 Faraday's Law
22-2 Inductance
22-3 Alternating Current Circuits
In Perspective Essay: Michael Faraday
23. Light
23-1 Electromagnetic Waves
23-2 The Nature of Light
23-3 The Propagation of Light
23-4 Reflection and Refraction
24. Geometrical Optics
24-1 Plane Mirrors
24-2 Spherical Mirrors
24-3 Lenses
25. The Eye and Optical Instruments
25-1 The Human Eye
25-2 The Magnifier
25-3 The Microscope
25-4 The Telescope
Closer Look Essay: Structure of the Retina and Color
Sensitivity
25-5 Factors Limiting Visual Acuity
26. Wave Optics
26-1 Wave Properties of Light
26-2 Interference
26-3 Diffraction
26-4 Polarization
Closer Look Essay: Magic in the Sky
27. Relativity
27-1 Measurement of Time; Einstein's
Postulates
27-2 Time Dilation
27-3 Length Contraction
27-4 Relative Velocity
27-5 Relativistic Mass and Energy
Closer Look Essay: General Relativity
In Perspective Essay: Albert Einstein
28. Quantum Concepts
28-1 Photons
28-2 Wave-Particle Duality
28-3 The Uncertainty Principle
In Perspective Essay: Richard Feynman
In Perspective Essay: Stephen Hawking
29. The Atom
29-1 Atomic Spectra and the Bohr Model
of the Atom
29-2 Wave Properties of Electrons;
Quantum Mechanics
29-3 Quantum Theory of Atomic Structure
and Spectra; X-Rays
Closer Look Essay: Lasers
Closer Look Essay: Semiconductors
30. Nuclear Physics and Elementary
Particles
30-1 Nuclear Structure
30-2 Radioactive Decay
30-3 Nuclear Reactions; Fission and Fusion
30-4 Biological Effects of Radiation
30-5 Elementary Particles
In Perspective Essay: Marie Curie
Appendix
A Review of Mathematics
B Gauss' Law
C Models of Electrical Conduction in
Metals
D Selected Isotopes
E Answers to Odd-Numbered Problems
Index
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sample chapter, as they are not functioning links.
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Physics
for Science and Engineering Students
by Peter Nolan - Wins
Mac
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PDF Format - 1,200 pages |
Shipped in 9 days |
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Calculus-Based
Introductory Physics Text on CD
Physics for Science and Engineering Students by Peter Nolan provides a
strong foundation in the principles of physics for students of science and
engineering who are concurrently taking an introductory calculus course. The
emphasis throughout the book is on clarity. The book starts out at a simple
level, and gradually advances as students’ understanding and ability with
calculus grows.
The book contains many of the intermediate steps that are often left out of
derivations and example problems in many traditional textbooks. Students new
to physics often find it difficult to follow derivations when the
intermediate steps are left out. Dr. Nolan carefully and completely shows
students each step, from start to finish.
Every worked example in the textbook is linked to an Interactive Example.
The Interactive Examples allow the student to make variations to the example
problem and immediately be provided with a detailed solution which includes
all the in-between steps and calculations. This permits the student to solve
the example problem many times over with different initial values, and also
allows “what if” scenarios to be quickly performed; i.e., what if the angle,
mass, or force were changed? This unique feature makes the book the first
truly interactive physics textbook (Microsoft Excel must be installed on
computer). Each chapter also contains Interactive Tutorials — a series of
physics problems much like the Interactive Examples, but are more detailed
and more generalized.
- Text is comprised of 38 Chapters, 1200 pages, and
over 1000 photographs and illustrations.
- Contains a wealth of end-of-chapter questions and
problems ranging in difficulty from very simple to very
challenging. Problem sets are grouped according to the
section where the topic is covered.
- A series of essays entitled Have you ever wondered?
appear throughout the text discussing the application of
physics to interesting areas such as meteorology,
astronomy, aviation, space travel, health sciences, the
environment, philosophy, and sports.
- A section called The Language of Physics, found at
the end of each chapter, summarizes the most important
ideas and definitions discussed in that chapter.
Table of Contents:
Preface
Computer Assisted Instruction
Part One: Mechanics
1 Introduction and Measurements
1.1 Historical Background
1.2 The Realm of Physics
1.3 Physics is a Science of Measurement
1.4 The Fundamental Quantities
1.5 The Standard of Length
1.6 The Standard of Mass
1.7 The Standard of Time
1.8 The Standard of Electrical Charge
1.9 Systems of Units
1.10 Conversion Factors
1.11 Derived Quantities
1.12 Measurements, Significant Figures and
Propagation of Errors
Interactive Tutorials
2 Kinematics in One Dimension
2.1 Kinematics - The Study of Motion
2.2 Experimental Description of a Moving Body
2.3 A Body Moving at Constant Velocity
2.4 A Body Moving at Constant Acceleration
2.5 The Instantaneous Velocity of a Moving Body
2.6 The Kinematic Equations
2.7 The Freely Falling Body
2.8 Determination of Your Reaction Time by a
Freely Falling Body
2.9 Projectile Motion in One Dimension
2.10 Calculus and Kinematics
Essay: Kinematics and Traffic Congestion Hints for
Problem Solving
Interactive Tutorials
3 Vectors
3.1 Introduction
3.2 Displacement
3.3 Vector Algebra — Addition of Vectors
3.4 Vector Subtraction — Negative of a Vector
3.5 Addition of Vectors by the Polygon Method
3.6 Resolution of a Vector into its Components
3.7 Determination of a Vector from its Components
3.8 Unit Vectors
3.9 Addition of Vectors by the Component Method
3.10 The Multiplication of Vectors
3.11 The Scalar Product or Dot Product
3.12 The Vector Product or Cross Product
Interactive Tutorials
4 Kinematics in Two Dimensions
4.1 The Kinematic Equations in Vector Form
4.2 Projectile Motion in Two Dimensions
4.3 Calculus and Kinematics in Two Dimensions
4.4 Uniform Circular Motion
4.5 Centripetal Acceleration and its Direction
4.6 Angles Measured in Radians
4.7 The Magnitude of Centripetal Acceleration
4.8 Nonuniform Circular Motion
Interactive Tutorials
5 Newton’s Laws of Motion
5.1 Introduction
5.2 Newton's First Law of Motion
5.3 Newton's Third Law of Motion
5.4 Newton's Second Law of Motion
5.5 Applications of Newton's Second Law
Essay: Physics in Sports
Interactive Tutorials
6 Newton's Laws of Motion with Friction
6.1 Friction
6.2 Applications of Newton’s Second Law, Taking
Friction into Account
6.3 A Falling Body With Air Resistance
6.4 Centripetal Force
6.5 Centrifugal Force
6.6 Examples of Centripetal Force
Interactive Tutorials
7 Energy and its Conservation
7.1 Energy
7.2 Work
7.3 Work Done by a Variable Force
7.4 Power
7.5 Potential Energy
7.6 Kinetic Energy
7.7 The Conservation of Energy
7.8 Further Analysis of the Conservation of Energy
Essay: The Great Pyramids
Interactive Tutorials
8 Momentum and its Conservation
8.1 Momentum
8.2 The Law of Conservation of Momentum
8.3 Examples of Conservation of Momentum
8.4 Impulse
8.5 Collisions in One Dimension
8.6 Collisions in Two Dimensions
8.7 The Center of Mass
8.8 Systems with Variable Mass — The Rocket
Interactive Tutorials
9 Rotational Motion
9.1 Introduction
9.2 Rotational Kinematics
9.3 The Kinetic Energy of Rotation
9.4 Moment of Inertia
9.5 Concept of Torque
9.6 Newton's Laws for Rotational Motion
9.7 Rotational Dynamics
9.8 Angular Momentum and its Conservation
9.9 Combined Translational and Rotational Motion
Treated by the Conservation of Energy
9.10 Work in Rotational Motion
Essay: Attitude Control of Airplanes and Spaceships
Interactive Tutorials
10 Gravitation — Planetary and
Satellite Motion
10.1 Newton's Law of Universal Gravitation
10.2 Acceleration Due to Gravity and Newton's
Law of Universal Gravitation
10.3 Variation of Acceleration Due to Gravity
10.4 Acceleration Due to Gravity on the Moon and
Other Planets
10.5 Generalization of the Formulation for
Gravitational Potential Energy
10.6 Planetary Motion
10.7 Satellite Motion
10.8 Space Travel
Interactive Tutorials
11 Equilibrium
11.1 The First Condition of Equilibrium
11.2 The Second Condition of Equilibrium
11.3 Equilibrium of a Rigid Body
11.4 Examples of Rigid Bodies in Equilibrium
Essay: Traction
Interactive Tutorials
Part Two: Vibratory Motion, Wave Motion, and
Fluids
12 Elasticity
12.1 The Atomic Nature of Elasticity
12.2 Hooke's Law — Stress and Strain
12.3 Hooke's Law for a Spring
12.4 Elasticity of Shape — Shear
12.5 Elasticity of Volume
Interactive Tutorials
13 Simple Harmonic Motion
13.1 Introduction to Periodic Motion
13.2 Simple Harmonic Motion
13.3 Analysis of Simple Harmonic Motion – The
Reference Circle
13.4 Conservation of Energy and a Vibrating Spring
13.5 The Simple Pendulum
13.6 Springs in Parallel and in Series
Interactive Tutorials
14 Wave Motion
14.1 Introduction
14.2 Mathematical Representation of a Wave
14.3 Speed of a Transverse Wave on a String
14.4 Reflection of a Wave at a Boundary
14.5 The Principle of Superposition
14.6 Standing Waves on a String
14.7 Sound Waves
14.8 The Doppler Effect
14.9 Transmission of Energy in a Wave and the
Intensity of a Wave
Essay: Production and Reception of Human Sound
Interactive Tutorials
15 Fluids
15.1 Introduction
15.2 Density
15.3 Pressure
15.4 Pascal's Principle
15.5 Archimedes' Principle
15.6 The Equation of Continuity
15.7 Bernoulli's Theorem
15.8 Application of Bernoulli's Theorem
Essay: Flow of Blood in the Human Body
Interactive Tutorials
Part Three: Thermodynamics
16 Temperature and Heat
16.1 Temperature
16.2 Heat
16.3 Specific Heat
16.4 Calorimetry
16.5 Change of Phase
Interactive Tutorials
17 Thermal Expansion and the Gas Laws
17.1 Linear Expansion of Solids
17.2 Area Expansion of Solids
17.3 Volume Expansion of Solids and Liquids
17.4 Volume Expansion of Gases: Charles' Law
17.5 Gay-Lussac's Law
17.6 Boyle's Law
17.7 The Ideal Gas Law
17.8 The Kinetic Theory of Gases
Essay: Relative Humidity & Cooling of Human Body
Interactive Tutorials
18 Heat Transfer
18.1 Heat Transfer
18.2 Convection
18.3 Conduction
18.4 Radiation
Essay: Greenhouse Effect and Global Warming
Interactive Tutorials
19 Thermodynamics
19.1 Introduction
19.2 The Concept of Work Applied to a Thermodynamic
System
19.3 Heat Added to or Removed from a Thermodynamic
System
19.4 The First Law of Thermodynamics
19.5 Special Cases of the First Law of
Thermodynamics
19.6 The Gasoline Engine
19.7 The Ideal Heat Engine
19.8 The Carnot Cycle
19.9 The Second Law of Thermodynamics
19.10 Entropy
19.11 Statistical Interpretation of Entropy
Essay: Meteorology – Physics of the Atmosphere
Interactive Tutorials
Part Four: Electricity and Magnetism
20 Electrostatics
20.1 Introduction
20.2 Separation of Electric Charge by Rubbing
20.3 Atomic Structure
20.4 Measurement of Electric Charge
20.5 Coulomb's Law
20.6 Multiple Discrete Charges
20.7 Forces Caused by a Continuous
Distribution of Charge
Interactive Tutorials
21 Electric Fields
21.1 The Electric Field
21.2 The Electric Field of a Point Charge
21.3 Superposition of Electric Fields for Multiple
Discrete Charges
21.4 Electric Field along the Perpendicular Bisector
of an Electric Dipole
21.5 The Torque on a Dipole in an External Electric
Field
21.6 Electric Fields of Continuous
Charge Distributions
21.7 Electric Field on Axis of a Charged Rod
21.8 Electric Field on Axis for a Ring of Charge
21.9 Electric Field on Axis for a Disk of Charge
21.10 Dynamics of a Charged Particle in an Electric
Field
Interactive Tutorials
22 Electric Flux and Gauss’s Law
22.1 Introduction
22.2 Electric Flux
22.3 Gauss’s Law for Electricity
22.4 Electric Field of a Spherically Symmetric
Uniform Charge Distribution
22.5 Electric Field of an Infinite Line of Charge
22.6 Electric Field of an Infinite Plane Sheet of
Charge
22.7 Electric Field Inside a Conducting Body
22.8 Electric Field Between Two Oppositely Charged
Parallel Conducting Plates
Interactive Tutorials |
23 The Electric Potential
23.1 Potential Energy
23.2 Electric Potential and Potential Difference
23.3 Generalization of the Formulation for Potential
Difference
23.4 The Potential of a Positive Point Charge
23.5 Superposition of Potentials for Multiple
Discrete Charges
23.6 The Potential of an Electric Dipole
23.7 The Potential Energy of an Electric Dipole in
an External Electric Field
23.8 The Potential for a Continuous
Distribution of Charge
23.9 The Potential on Axis for a Charged Rod
23.10 The Potential on Axis for a Ring of Charge
23.11 The Potential on Axis for a Disk of Charge
23.12 The Battery — Source of Potential Differences
Interactive Tutorials
24 Electric Currents and DC Circuits
24.1 Electric Current
24.2 Ohm's Law
24.3 Resistivity
24.4 Variation of Resistance with Temperature
24.5 Conservation of Energy and the Electric Circuit
— Power Expended in a Circuit
24.6 Resistors in Series
24.7 Resistors in Parallel
24.8 Combinations of Resistors in Series and
Parallel
24.9 The Electromotive Force and the Internal
Resistance of a Battery
24.10 Making an Ammeter and Voltmeter from a
Galvanometer
24.11 The Wheatstone Bridge
24.12 Kirchhoff's Rules
Interactive Tutorials
25 Capacitance
25.1 Introduction
25.2 The Parallel Plate Capacitor
25.3 The Cylindrical Capacitor
25.4 The Spherical Capacitor
25.5 Energy Stored in a Capacitor
25.6 Capacitors in Series
25.7 Capacitors in Parallel
25.8 Combinations of Capacitors in Series and
Parallel
25.9 Capacitors with Dielectrics Placed between the
Plates
25.10 Atomic Description of a Dielectric
25.11 Charging and Discharging a Capacitor
Interactive Tutorials
26 Magnetism
26.1 Force on a Charge in a Magnetic Field —
Definition of the Magnetic Field B
26.2 Force on a Current-Carrying Conductor in an
External Magnetic Field
26.3 Force on a Semicircular Wire Carrying a Current
in an External Magnetic Field
26.4 Generation of a Magnetic Field
26.5 The Biot-Savart Law
26.6 The Magnetic Field at the Center of a Circular
Current Loop
26.7 Magnetic Field on Axis for a Circular Current
Loop
26.8 Ampčre's Circuital Law
26.9 The Magnetic Field Around a Long
Straight Wire by Ampere’s Law
26.10 Force between Parallel, Current-Carrying
Conductors — Definition of the Ampere
26.11 The Magnetic Field Inside a Solenoid
26.12 Magnetic Field Inside a Toroid
26.13 Torque on a Current Loop in an External
Magnetic Field — Magnetic Dipole Moment
26.14 Applications of the Torque on a Current Loop
in an External Magnetic Field
26.15 Permanent Magnets and Atomic Magnets
26.16 The Potential Energy of a Magnetic Dipole in
an External Magnetic Field
26.17 Magnetic Flux
26.18 Gauss’s Law for Magnetism
Interactive Tutorials
27 Electromagnetic Induction
27.1 Introduction
27.2 Motional emf and Faraday's Law of
Electromagnetic Induction
27.3 Lenz's Law
27.4 Induced emf in Rotating Loop of Wire in a
Magnetic Field — Alternating emf’s and the AC
Generator
27.5 Mutual Induction
27.6 Self-Induction
27.7 The Energy Stored in the Magnetic Field of an
Inductor
27.8 Comparison of the Electrostatic Field and the
Induced Electric Field
27.9 Generalization of Faraday's Law of
Electromagnetic Induction
Interactive Tutorials
28 Alternating Current Circuits
28.1 Introduction
28.2 The Effective Current and Voltage in an AC
Circuit
28.3 An RLC Series Circuit
28.4 Resonance in an RLC Series Circuit
28.5 Power in an AC Circuit
28.6 An RLC Parallel Circuit
28.7 The Transformer
Essay: Metal Detectors at Airports
Interactive Tutorials
29 Maxwell’s Equations and Electromagnetic Waves
29.1 Introduction
29.2 The Displacement Current and Ampčre's Law
29.3 Ampere’s Law with the Displacement Current Term
29.4 Faraday’s Law Revisited
29.5 Maxwell’s Equations in Integral Form
29.6 Electromagnetic Waves
29.7 The Production of an Electromagnetic Wave — An
Oscillating Dipole
29.8 The Propagation of an Electromagnetic Wave
29.9 The Speed of an Electromagnetic Wave
29.10 The Electromagnetic Spectrum
29.11 Energy Transmitted by an Electromagnetic Wave
Interactive Tutorials
Part Five: Light and Optics
30 The Law of Reflection
30.1 Light as an Electromagnetic Wave
30.2 The Law of Reflection
30.3 The Plane Mirror
30.4 The Concave Spherical Mirror
30.5 The Convex Spherical Mirror
Interactive Tutorials
31 The Law of Refraction
31.1 Refraction
31.2 The Law of Refraction
31.3 Apparent Depth of an Object Immersed in Water
31.4 Refraction through Parallel Faces
31.5 Total Internal Reflection
31.6 Dispersion
31.7 Thin Lenses
31.8 Ray Tracing and Standard Rays
31.9 The Lens Equation
31.10 Some Special Cases for the Convex Lens
31.11 Combinations of Lenses
31.12 Thin Lenses in Contact
31.13 Optical Instruments
Essay: Nature's Camera — The Human Eye
Interactive Tutorials
32 Physical Optics
32.1 Introduction
32.2 The Interference of Light — Young’s Double-Slit
Experiment
32.3 The Interference of Light — The Michelson
Interferometer
32.4 Interference-Thin Films
32.5 Diffraction from a Single Slit
32.6 The Diffraction Grating
Interactive Tutorials
Part Six: Modern Physics
33 Special Relativity
33.1 Introduction to Relative Motion
33.2 The Galilean Transformations of Classical
Physics
33.3 The Invariance of the Mechanical Laws of
Physics under a Galilean Transformation
33.4 Electromagnetism and the Ether
33.5 The Michelson-Morley Experiment
33.6 The Postulates of the Special Theory of
Relativity
33.7 The Lorentz Transformation
33.8 The Lorentz-Fitzgerald Contraction
33.9 Time Dilation
33.10 Transformation of Velocities
33.11 The Law of Conservation of Momentum and
Relativistic Mass
33.12 The Law of Conservation of Mass-Energy
Interactive Tutorials
34 Spacetime and General Relativity
34.1 Spacetime Diagrams
34.2 The Invariant Interval
34.3 The General Theory of Relativity
34.4 The Bending of Light in a Gravitational Field
34.5 The Advance of the Perihelion of the Planet
Mercury
34.6 The Gravitational Red Shift
34.7 The Shapiro Experiment
Essay: The Black Hole
Interactive Tutorials
35 Quantum Physics
35.1 The Particle Nature of Waves
35.2 Blackbody Radiation
35.3 The Photoelectric Effect
35.4 The Properties of the Photon
35.5 The Compton Effect
35.6 The Wave Nature of Particles
35.7 The Wave Representation of a Particle
35.8 The Heisenberg Uncertainty Principle
35.9 Different Forms of the Uncertainty Principle
35.10 The Heisenberg Uncertainty Principle and
Virtual Particles
5.11 The Gravitational Red Shift by the Theory of
Quanta
35.12 An Accelerated Clock
Interactive Tutorials
36 Atomic Physics
36.1 The History of the Atom
36.2 The Bohr Theory of the Atom
36.3 The Bohr Theory and Atomic Spectra
36.4 The Quantum Mechanical Model of the Hydrogen
Atom
36.5 The Magnetic Moment of the Hydrogen Atom
36.6 The Zeeman Effect
36.7 Electron Spin
36.8 The Pauli Exclusion Principle and the Periodic
Table of the Elements
Essay: Is This World Real or Just an Illusion?
Interactive Tutorials
37 Nuclear Physics
37.1 Introduction
37.2 Nuclear Structure
37.3 Radioactive Decay Law
37.4 Forms of Radioactivity
37.5 Radioactive Series
37.6 Energy in Nuclear Reactions
37.7 Nuclear Fission
37.8 Nuclear Fusion
37.9 Nucleosynthesis
Essay: Radioactive Dating
Interactive Tutorials
38 Elementary Particle Physics and Unification of
the Forces
38.1 Introduction
38.2 Particles and Antiparticles
38.3 The Four Forces of Nature
38.4 Quarks
38.5 The Electromagnetic Force
38.6 The Weak Nuclear Force
38.7 The Electroweak Force
38.8 The Strong Nuclear Force
38.9 Grand Unified Theories (GUT)
38.10 The Gravitational Force and Quantum Gravity
38.11 The Superforce — Unification of All the Forces
Essay: Big Bang Theory — Creation of the Universe
Appendix
Epilogue
Appendix A Conversion Factors
Appendix B Useful Mathematical Formulas
Appendix C Table of Integrals
Appendix D Physical Constants
Appendix E Table of the Elements
Bibliography
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Whether your challenge is to
introduce new computer technology to your
curriculum, or bring the lab experience to
on-line students or a need for an alternative
to dangerous, expensive or environmentally
hazardous labs, then Model ChemLab is
the classroom proven solution for you.
Model ChemLab originated
from academic work in computer simulation and
software design at McMaster University. It has
continued to be developed with extensive input
from educators interested in the possible
application of computer simulations for
classroom and distance learning.

Model ChemLab is a
unique product incorporating both an
interactive simulation and a lab notebook
workspace with separate areas for theory,
procedures and student observations. Commonly
used lab equipment and procedures are used to
simulate the steps involved in performing an
experiment. Users step-through the actual lab
procedure while interacting with animated
equipment in a way that is similar to the real
lab experience. ChemLab comes with a range of
pre-designed lab experiments for general
chemistry at the high school and college
level.
Users can expand upon the original lab
set using ChemLab's LabWizard development
tools, thus allowing for curriculum specific
lab simulation development by educators. These
user designed simulations combine both text
based instructions and the simulation into a
single distributable file.
ChemLab Design:
- Easy to use lab interface modelled on
common lab procedure
- Student lab notebook workspace area
- Real time animated interactive
simulation engine
- Lab Wizard tools for easy user created
lab simulations
- Support for plug-in lab simulations
extensions
Lab equipment:
- Beakers, Erlenmeyer and Florence flasks,
test tubes, graduated cylinders, burets,
eye dropper, pipets, watch glasses,
filtering flask with buchner funnel, Bunsen
burner, hot plate / Magnetic
stirrer, stirring rods, evaporation dish,
calorimeter, conductivity meter,
potentiometer, Spectrophotometer and
others…
- Balances: centigram, electronic and high
sensitivity balance
- Distillation equipment set-up:
distillation flask with heating mantel,
distillation head, condenser and
distillation take-off
Common Lab Procedures:
- Titration, Decanting /pouring
- Heating and hot/cold water baths
- Temperature, weight, pH, conductivity,
voltage and volume measurements
- Plot titration curves
Large selection of pre-defined labs
simulations:
- Acid/base reactions, bond lab, cations
reactions, electrochemistry, equilibrium,
flame lab, fractional crystallization,
fractional distillation, gravimetric
analysis, kinetics, redox reactions,
stoichiometry, thermal chemistry,
volumetric analysis, water quality, weak
acid titration and many more.
Lab Wizards (Professional Edition):
- Allow users to create customized lab simulations
- Lab Wizard steps users through process
of new lab creation
- Single distributable file
- Expandable chemical database allows
users to add new chemicals to ChemLab
Free updates from Model Science web site:
- Registered users can download updates
and new Lab simulations from the Model
Science web site.
Wide Range of Applications:
- Ideal for distance learning,
demonstrations, lab run-throughs, pre-lab
work, dangerous and environmentally
hazardous, expensive, or lengthy labs.
Lab Wizards (Professional Edition):
- Allow users to create customized lab simulations
- Lab Wizard steps users through process
of new lab creation
- Single distributable file
- Expandable chemical database allows
users to add new chemicals to ChemLab
Free updates from Model Science web site:
- Registered users can download updates
and new Lab simulations from the Model
Science web site.
Wide Range of Applications:
- Ideal for distance learning,
demonstrations, lab run-throughs, pre-lab
work, dangerous and environmentally
hazardous, expensive, or lengthy labs.
| System Requirements:
Windows:
Windows® 95/98/ME/ NT with 8MB RAM, VGA or higher.
Macintosh:
(also available for Mac OS 7.0). |
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General
Physics - Without
Calculus -
Wins
Mac
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|
Student Version |
Shipped in 9
days |
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This interactive tutorial package introduces the basic concepts of Physics
covered in introductory college level General Physics courses. The material in this program is geared towards students studying General
Physics at the college level and for high school students.
Teachers can use this program as a demonstration and visualization tool in
their classroom lectures. Teachers can draw from the various interactive
exercises to explain concepts that may be difficult to show using a traditional
blackboard or overhead projector. By switching off the audio, teachers can
present ideas in class in their own way.
Students can use the program as an exciting learning tool that can supplement
in-class lectures and textbook studying. They can use this program as a
self-study tool to review topics they are having trouble understanding in order
to prepare for lectures and exams.
Table of Contents
General principles, Math
review, Vectors, Kinematics, Gravitation,
Projectile
motion, Thermodynamics, Frames
of reference, Waves, Forces, Newton's Laws, Electromagnetic
theory, Momentum and collisions, Pre-Quantum experiments,
Work
and energy, Quantum mechanics, Rotational motion, Special
relativity, Nuclear structure.
|
System Requirements:
Macintosh: 16
MHz 68020 or better, Mac OS 6.07, 640 x 480 colour monitor, 256 colours, 4
megabytes free RAM, CD-ROM drive required. Windows: 486/20 PC Windows 3.1, 95, 98, 4 megabytes free RAM, VGA graphics, 256
colours, sound card required but not necessary, CD-ROM drive required. |
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General
Physics
with Calculus
-
Wins
Mac
 |
|
Student Version |
Shipped in 9 days |
|
|
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This interactive tutorial package introduces the basic concepts of Physics
covered in introductory college level General Physics courses. The material in this program is geared towards students studying General
Physics at the college level and for high school students.
Teachers can use this program as a demonstration and visualization tool in
their classroom lectures. Teachers can draw from the various interactive
exercises to explain concepts that may be difficult to show using a traditional
blackboard or overhead projector. By switching off the audio, teachers can
present ideas in class in their own way.
Students can use the program as an exciting learning tool that can supplement
in-class lectures and textbook studying. They can use this program as a
self-study tool to review topics they are having trouble understanding in order
to prepare for lectures and exams.
Table of Contents
General principles, Math
review, Vectors, Kinematics, Gravitation,
Projectile
motion, Thermodynamics, Frames
of reference, Waves, Forces, Newton's Laws, Electromagnetic
theory, Momentum and collisions, Pre-Quantum experiments,
Work
and energy, Quantum mechanics, Rotational motion, Special
relativity, Nuclear structure.
|
System Requirements:
Macintosh: 16
MHz 68020 or better, Mac OS 6.07, 640 x 480 colour monitor, 256 colours, 4
megabytes free RAM, CD-ROM drive required. Windows: 486/20 PC Windows 3.1, 95, 98, 4 megabytes free RAM, VGA graphics, 256
colours, sound card required but not necessary, CD-ROM drive required. |
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This interactive tutorial package introduces the basic concepts of
Chemistry covered in introductory college level Chemistry courses.
The program takes advantage of multimedia technology to present
teachers and students with a new way of approaching and understanding the
challenging concepts and ideas found in Physical Chemistry.
- User-friendly interface allows for easy navigation
- Flexible plotting, drag & drop and other interactive exercises
- Hundreds of 3-D visual demonstrations, movies, animations and sound effects
- Many concise voice comments help to emphasize key concepts
- Over 200 hours of study material on each CD compiled by renowned
McGill professor Dr. Bryan Sanctuary
Table of Contents - Nature of physical chemistry & kinetic
theory of gases, First law of thermodynamics, Second and third laws of
thermodynamics, Chemical equilibrium, Electrochemical cells, Chemical
kinetics I. The basic ideas, Chemical kinetics II. Composite mechanisms,
Quantum mechanics and atomic structure, The chemical bond, The solid state
|
System Requirements:
Macintosh: 16 MHz 68020 or better, Mac OS 6.07, 640 x 480 colour monitor, 256
colours, 4MB free RAM, CD-ROM drive required.
Windows: 486/20 PC Windows 3.1, 95, 98, 4MB free RAM, VGA graphics, 256
colours, sound card required but not necessary, CD-ROM drive required. |
|
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TOP |
|
This interactive tutorial package
introduces the basic concepts of Chemistry covered in introductory college
level Chemistry courses. Teachers can use this program as a demonstration
and visualization tool in their classroom lectures. They can draw from the
various interactive exercises to explain concepts that may be difficult to
show using a traditional blackboard or overhead projector. By switching
off the audio, teachers can present ideas in class in their own way.
Students can use the program as an exciting learning tool that can
supplement in-class lectures and textbook studying. They can use it as a
self-study tool to review topics they are having trouble understanding in
order to prepare for lectures and exams.
- The program takes advantage of
multimedia technology to present teachers and students with a new way of
approaching and understanding the challenging concepts and ideas found in General Chemistry.
- Easy to use table of contents,
glossary and key word searches
- Flexible plotting, drag and drop exercises
- Convenient pull down calculator,
glossary, note pad, periodic table and many tables of useful data
- Quizzes with step-by-step feedback
- Hundreds of interactive movies and animations
- Many concise voice comments
emphasize the key ideas that students need to understand
- Designed to accompany any text
- Over 200 hours of study material on each CD
Table of Contents -
General principles, Math review, Chemistry, View 3D molecules, Ideal
gases, Kinetic theory, Acids and bases, Equilibrium, Thermodynamics,
Electrochemistry, Electromagnetic theory, Pre-Quantum experiments, Quantum
mechanics, Bonding, Chemical kinetics, Solids, Group A elements,
Transition elements
|
System Requirements:
Macintosh: 16 MHz 68020 or better, Mac OS 6.07, 640 x 480 colour monitor, 256
colours, 4MB free RAM, CD-ROM drive required.
Windows: 486/20 PC Windows 3.1, 95, 98, 4MB free RAM, VGA graphics, 256
colours, sound card required but not necessary, CD-ROM drive required. |
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Introductory Chemistry
-
Wins
Mac
 |
|
Student Version |
Shipped in 7 days |
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The material in this
program is geared towards students studying Introductory
Chemistry at the High School and Advanced Placement level.
Program Features
The program takes
advantage of multimedia technology to present teachers and
students with a new way of approaching and understanding
the challenging concepts and ideas found in Chemistry.
- User-friendly
interface allows for easy navigation
- Flexible plotting,
drag & drop and other interactive exercises
- Convenient pull
down calculator, glossary, key word searches, note pad,
periodic table and many tables of useful data
- Quizzes with
step-by-step feedback
- Hundreds of 3-D
visual demonstrations, movies, animations and sound
effects
- Many concise voice
comments help to emphasize key concepts
- Over 200 hours of
study material on each CD compiled by renowned McGill
professor Dr. Bryan Sanctuary
Table of Contents:
1. Quick Tour
2. Introduction to chemistry
3. Observe measure and calculate
4. Matter, atoms and ions
5. Naming chemical compounds
6. Chemical Stoichiometry
7. Chemical reactions
8. Ideal gases
9. Gas kinetics
10. Solids
11. Solutions
12. Equilibrium
13. Chemical kinetics
14. Acids and bases
15. Energy and entropy
16. Electrochemistry
17. Electromagnetic theory
18. Quantum mechanics
19. Bonding
20. Main group elements
21. Transition elements
22. Organic chemistry
23. Naming organic compounds
24. Biochemistry
25. Nuclear chemistry
|
System Requirements:
Macintosh: CPU: PowerPC based processor, OS:
Mac OS 8.1 or higher, Disk Space: 50 MB free hard drive space,
Memory: Minimum 16 MB RAM, Multimedia: SVGA graphics, Sound Card.
Windows: CPU: Minimum 486/66, OS: Windows 9x, NT 4.0
or higher, Disk Space: 50 MB free hard drive space, Memory: Minimum
16 MB RAM, Multimedia: SVGA graphics, Sound Card. |
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This interactive tutorial package introduces the basic concepts of
Organic Chemistry covered in introductory college level Organic Chemistry
courses.
Teachers can use this program as a demonstration and visualization tool
in their classroom lectures. They can draw from the various interactive
exercises to explain concepts that may be difficult to show using a
traditional blackboard or overhead projector. By switching off the audio,
teachers can present ideas in class in their own way.
Students can use the program as an exciting learning tool that can
supplement in-class lectures and textbook studying. They can use this
program as a self-study tool to review topics they are having trouble
understanding in order to prepare for lectures and exams.
The program takes advantage of multimedia technology to present
teachers and students with a new way of approaching and understanding the
challenging concepts and ideas found in Organic Chemistry.
Table of Contents
Overview of organic chemistry, Stereochemistry, Chemical
bonds and hybridisation, Acid-base reactions, Organic reaction types,
Nomenclature, Functional group chemistry, Alkenes, Alcohols, Ethers,
Aromatic compounds, Aldehydes and ketones, Carboxylic acids, Amines,
Biochemistry
|
System Requirements:
Macintosh: 16 MHz 68020 or better, MacOS 6.07, 640 x 480 colour monitor, 256
colours, 4MB free RAM, CD-ROM drive required.
Windows: 486/20 PC Windows 3.1, 95, 98, 4MB free RAM, VGA graphics, 256
colours, sound card required but not necessary, CD-ROM drive required. |
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