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College Physics: A Strategic Approach 4th edition [Hardback]

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  • Formāts: Hardback, 1168 pages, height x width x depth: 100x100x100 mm, weight: 100 g
  • Izdošanas datums: 27-Feb-2018
  • Izdevniecība: Pearson
  • ISBN-10: 0134609034
  • ISBN-13: 9780134609034
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  • Formāts: Hardback, 1168 pages, height x width x depth: 100x100x100 mm, weight: 100 g
  • Izdošanas datums: 27-Feb-2018
  • Izdevniecība: Pearson
  • ISBN-10: 0134609034
  • ISBN-13: 9780134609034
Citas grāmatas par šo tēmu:

For courses in algebra-based introductory physics.

 

Make physics relevant for today's mixed-majors students

College Physics: A Strategic Approach, 4th Edition expands its focus from how mixed majors students learn physics to focusing on why these students learn physics. The authors apply the best results from educational research and Mastering Physics metadata to present basic physics in real world examples that engage students and connect physics with other fields, including biological sciences, architecture, and natural resources. From these connections, students not only learn in research-driven ways but also understand why they are taking the course and how it applies to other areas.

 

Extensive new media and an interactive Pearson eText pique student interest while challenging misconceptions and fostering critical thinking. New examples, explanations, and problems use real data from research to show physics at work in relatable situations, and help students see that physics is the science underlying everything around them.   A Strategic Approach, 4th Edition, encourages today’s students to understand the big picture, gain crucial problem-solving skills and come to class both prepared and confident.

 

Also available with Mastering Physics

Mastering™ is the teaching and learning platform that empowers you to reach every student. By combining trusted author content with digital tools developed to engage students and emulate the office-hour experience, Mastering personalizes learning and often improves results for each student. With Learning Catalytics instructors can expand on key concepts and encourage student engagement during lecture through questions answered individually or in pairs and groups. Students also master concepts through book-specific Mastering Physics assignments, which provide hints and answer-specific feedback that build problem-solving skills. Mastering Physics now provides students with the new Physics Primer for remediation of math skills needed in the college physics course.


Note: You are purchasing a standalone product; Mastering Physics does not come packaged with this content. Students, if interested in purchasing this title with Mastering Physics, ask your instructor for the correct package ISBN and Course ID. Instructors, contact your Pearson representative for more information.

 

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0134641493 / 9780134641492 College Physics: A Strategic Approach Plus Mastering Physics with Pearson eText -- Access Card Package

Package consists of:

  • 0134609034 / 9780134609034 College Physics: A Strategic Approach
  • 0134609891 / 9780134609898 Student Workbook for College Physics: A Strategic Approach
  • 0134667042 / 9780134667041 Mastering Physics with Pearson eText -- ValuePack Access Card -- for College Physics: A Strategic Approach

 

Preface to the Instructor iv
Preface to the Student xii
Studying for and Taking the MCAT Exam xiii
Real-World Applications xvii
Part I: Force and Motion
Overview: The Science of Physics
3(1)
Chapter 1 Representing Motion
4(28)
1.1 Motion: A First Look
5(2)
1.2 Models and Modeling
7(1)
1.3 Position and Time: Putting Numbers on Nature
8(3)
1.4 Velocity
11(2)
1.5 A Sense of Scale: Significant Figures, Scientific Notation, and Units
13(6)
1.6 Vectors and Motion: A First Look
19(4)
1.7 Where Do We Go from Here?
23(2)
Summary
25(1)
Questions and Problems
26(6)
Chapter 2 Motion in One Dimension
32(39)
2.1 Describing Motion
33(4)
2.2 Uniform Motion
37(4)
2.3 Instantaneous Velocity
41(3)
2.4 Acceleration
44(3)
2.5 Motion with Constant Acceleration
47(4)
2.6 Solving One-Dimensional Motion Problems
51(4)
2.7 Free Fall
55(6)
Summary
61(1)
Questions and Problems
62(9)
Chapter 3 Vectors and Motion in Two Dimensions
71(34)
3.1 Using Vectors
72(2)
3.2 Coordinate Systems and Vector Components
74(5)
3.3 Motion on a Ramp
79(3)
3.4 Motion in Two Dimensions
82(3)
3.5 Projectile Motion
85(2)
3.6 Projectile Motion: Solving Problems
87(3)
3.7 Circular Motion
90(3)
3.8 Relative Motion
93(3)
Summary
96(1)
Questions and Problems
97(8)
Chapter 4 Forces and Newton's Laws of Motion
105(29)
4.1 Motion and Forces
106(3)
4.2 A Short Catalog of Forces
109(4)
4.3 Identifying Forces
113(2)
4.4 What Do Forces Do?
115(2)
4.5 Newton's Second Law
117(3)
4.6 Free-Body Diagrams
120(2)
4.7 Newton's Third Law
122(4)
Summary
126(1)
Questions and Problems
127(7)
Chapter 5 Applying Newton's Laws
134(41)
5.1 Equilibrium
135(3)
5.2 Dynamics and Newton's Second Law
138(3)
5.3 Mass and Weight
141(3)
5.4 Normal Forces
144(2)
5.5 Friction
146(5)
5.6 Drag
151(6)
5.7 Interacting Objects
157(2)
5.8 Ropes and Pulleys
159(6)
Summary
165(1)
Questions and Problems
166(9)
Chapter 6 Circular Motion, Orbits, and Gravity
175(30)
6.1 Uniform Circular Motion
176(2)
6.2 Dynamics of Uniform Circular Motion
178(6)
6.3 Apparent Forces in Circular Motion
184(3)
6.4 Circular Orbits and Weightlessness
187(3)
6.5 Newton's Law of Gravity
190(3)
6.6 Gravity and Orbits
193(4)
Summary
197(1)
Questions and Problems
198(7)
Chapter 7 Rotational Motion
205(39)
7.1 Describing Circular and Rotational Motion
206(5)
7.2 The Rotation of a Rigid Body
211(4)
7.3 Torque
215(4)
7.4 Gravitational Torque and the Center of Gravity
219(4)
7.5 Rotational Dynamics and Moment of Inertia
223(4)
7.6 Using Newton's Second Law for Rotation
227(4)
7.7 Rolling Motion
231(3)
Summary
234(1)
Questions and Problems
235(9)
Chapter 8 Equilibrium And Elasticity
244(28)
8.1 Torque and Static Equilibrium
245(5)
8.2 Stability and Balance
250(2)
8.3 Springs and Hooke's Law
252(3)
8.4 Stretching and Compressing Materials
255(3)
8.5 Forces and Torques in the Body
258(5)
Summary
263(1)
Questions and Problems
264(8)
Part I: Summary Force and Motion
272(1)
One Step Beyond: Dark Matter and the Structure of the Universe
273(1)
Part I: Problems
274(3)
Part II Conservation Laws
Overview: Why Some Things Stay the Same
277(1)
Chapter 9 Momentum
278(31)
9.1 Impulse
279(1)
9.2 Momentum and the Impulse-Momentum Theorem
280(5)
9.3 Solving Impulse and Momentum Problems
285(2)
9.4 Conservation of Momentum
287(5)
9.5 Inelastic Collisions
292(2)
9.6 Momentum and Collisions in Two Dimensions
294(1)
9.7 Angular Momentum
295(5)
Summary
300(1)
Questions and Problems
301(8)
Chapter 10 Energy and Work
309(45)
10.1 The Basic Energy Model
310(4)
10.2 Work
314(4)
10.3 Kinetic Energy
318(3)
10.4 Potential Energy
321(4)
10.5 Thermal Energy
325(2)
10.6 Conservation of Energy
327(4)
10.7 Energy Diagrams
331(4)
10.8 Molecular Bonds and Chemical Energy
335(4)
10.9 Energy in Collisions
339(2)
10.10 Power
341(4)
Summary
345(1)
Questions and Problems
346(8)
Chapter 11 Using Energy
354(36)
11.1 Transforming Energy
355(3)
11.2 Energy in the Body
358(6)
11.3 Temperature, Thermal Energy, and Heat
364(3)
11.4 The First Law of Thermodynamics
367(2)
11.5 Heat Engines
369(3)
11.6 Heat Pumps
372(2)
11.7 Entropy and the Second Law of Thermodynamics
374(3)
11.8 Systems, Energy, and Entropy
377(5)
Summary
382(1)
Questions and Problems
383(7)
Part II: Summary Conservation Laws
390(1)
One Step Beyond: Order Out of Chaos
391(1)
Part II: Problems
392(3)
Part III: Properties of Matter
Overview: Beyond the Particle Model
395(1)
Chapter 12 Thermal Properties of Matter
396(45)
12.1 The Atomic Model of Matter
397(2)
12.2 The Atomic Model of an Ideal Gas
399(7)
12.3 Ideal-Gas Processes
406(6)
12.4 Thermal Expansion
412(2)
12.5 Specific Heat and Heat of Transformation
414(4)
12.6 Calorimetry
418(3)
12.7 Specific Heats of Gases
421(1)
12.8 Heat Transfer
422(4)
12.9 Diffusion
426(5)
Summary
431(1)
Questions and Problems
432(9)
Chapter 13 Fluids
441(37)
13.1 Fluids and Density
442(1)
13.2 Pressure
443(5)
13.3 Buoyancy
448(6)
13.4 Fluids in Motion
454(3)
13.5 Fluid Dynamics
457(4)
13.6 Viscosity and Poiseuille's Equation
461(2)
13.7 The Circulatory System
463(7)
Summary
470(1)
Questions and Problems
471(7)
Part III: Summary Properties of Matter
478(1)
One Step Beyond: Size and Life
479(1)
Part III: Problems
480(3)
Part IV: Oscillations and Waves
Overview: Motion That Repeats Again and Again
483(1)
Chapter 14 Oscillations
484(34)
14.1 Equilibrium and Oscillation
485(2)
14.2 Linear Restoring Forces and SHM
487(2)
14.3 Describing Simple Harmonic Motion
489(5)
14.4 Energy in Simple Harmonic Motion
494(5)
14.5 Pendulum Motion
499(3)
14.6 Damped Oscillations
502(2)
14.7 Driven Oscillations and Resonance
504(5)
Summary
509(1)
Questions and Problems
510(8)
Chapter 15 Traveling Waves and Sound
518(31)
15.1 The Wave Model
519(1)
15.2 Traveling Waves
520(4)
15.3 Graphical and Mathematical Descriptions of Waves
524(5)
15.4 Sound and Light Waves
529(2)
15.5 Energy and Intensity
531(2)
15.6 Loudness of Sound
533(3)
15.7 The Doppler Effect and Shock Waves
536(5)
Summary
541(1)
Questions and Problems
542(7)
Chapter 16 Superposition and Standing Waves
549(31)
16.1 The Principle of Superposition
550(1)
16.2 Standing Waves
551(2)
16.3 Standing Waves on a String
553(5)
16.4 Standing Sound Waves
558(5)
16.5 Speech and Hearing
563(2)
16.6 The Interference of Waves from Two Sources
565(4)
16.7 Beats
569(3)
Summary
572(1)
Questions and Problems
573(7)
Part IV: Summary Oscillations and Waves
580(1)
One Step Beyond: Waves in the Earth and the Ocean
581(1)
Part IV: Problems
582(3)
Part V: Optics
Overview: Light Is a Wave
585(1)
Chapter 17 Wave Optics
586(34)
17.1 What Is Light?
587(3)
17.2 The Interference of Light
590(4)
17.3 The Diffraction Grating
594(5)
17.4 Thin-Film Interference
599(6)
17.5 Single-Slit Diffraction
605(4)
17.6 Circular-Aperture Diffraction
609(3)
Summary
612(1)
Questions and Problems
613(7)
Chapter 18 Ray Optics
620(37)
18.1 The Ray Model of Light
621(3)
18.2 Reflection
624(3)
18.3 Refraction
627(4)
18.4 Image Formation by Refraction
631(2)
18.5 Thin Lenses: Ray Tracing
633(6)
18.6 Image Formation with Spherical Mirrors
639(5)
18.7 The Thin-Lens Equation
644(5)
Summary
649(1)
Questions and Problems
650(7)
Chapter 19 Optical Instruments
657(33)
19.1 The Camera
658(2)
19.2 The Human Eye
660(7)
19.3 The Magnifier
667(3)
19.4 The Microscope
670(3)
19.5 The Telescope
673(1)
19.6 Color and Dispersion
674(3)
19.7 Resolution of Optical Instruments
677(6)
Summary
683(1)
Questions and Problems
684(6)
Part V: Summary Optics
690(1)
One Step Beyond: Scanning Confocal Microscopy
691(1)
Part V: Problems
692(3)
Part VI: Electricity and Magnetism
Overview: Charges, Currents, and Fields
695(1)
Chapter 20 Electric Fields and Forces
696(38)
20.1 Charges and Forces
697(6)
20.2 Charges, Atoms, and Molecules
703(2)
20.3 Coulomb's Law
705(5)
20.4 The Concept of the Electric Field
710(3)
20.5 The Electric Field of Multiple Charges
713(6)
20.6 Conductors and Electric Fields
719(2)
20.7 Forces and Torques in Electric Fields
721(4)
Summary
725(1)
Questions and Problems
726(8)
Chapter 21 Electric Potential
734(40)
21.1 Electric Potential Energy and Electric Potential
735(2)
21.2 Sources of Electric Potential
737(3)
21.3 Electric Potential and Conservation of Energy
740(3)
21.4 Calculating the Electric Potential
743(8)
21.5 Connecting Potential and Field
751(4)
21.6 The Electrocardiogram
755(2)
21.7 Capacitance and Capacitors
757(4)
21.8 Energy and Capacitors
761(4)
Summary
765(1)
Questions and Problems
766(8)
Chapter 22 Current and Resistance
774(26)
22.1 A Model of Current
775(2)
22.2 Defining and Describing Current
777(2)
22.3 Batteries and emf
779(1)
22.4 Connecting Potential and Current
780(4)
22.5 Ohm's Law and Resistor Circuits
784(4)
22.6 Energy and Power
788(4)
Summary
792(1)
Questions and Problems
793(7)
Chapter 23 Circuits
800(38)
23.1 Circuit Elements and Diagrams
801(1)
23.2 Kirchhoff's Laws
802(3)
23.3 Series and Parallel Circuits
805(5)
23.4 Measuring Voltage and Current
810(1)
23.5 More Complex Circuits
811(3)
23.6 Capacitors in Parallel and Series
814(2)
23.7 RC Circuits
816(3)
23.8 Electricity in the Nervous System
819(8)
Summary
827(1)
Questions and Problems
828(10)
Chapter 24 Magnetic Fields and Forces
838(41)
24.1 Magnetism
839(1)
24.2 The Magnetic Field
840(4)
24.3 Electric Currents Also Create Magnetic Fields
844(3)
24.4 Calculating the Magnetic Field Due to a Current
847(11)
24.5 Magnetic Fields Exert Forces on Moving Charges 851
24.6 Magnetic Fields Exert Forces on Currents
858(3)
24.7 Magnetic Fields Exert Torques on Dipoles
861(4)
24.8 Magnets and Magnetic Materials
865(4)
Summary
869(1)
Questions and Problems
870(9)
Chapter 25 EM Induction and EM Waves
879(37)
25.1 Induced Currents
880(1)
25.2 Motional emf
881(3)
25.3 Magnetic Flux and Lenz's Law
884(5)
25.4 Faraday's Law
889(4)
25.5 Electromagnetic Waves
893(6)
25.6 The Photon Model of Electromagnetic Waves
899(1)
25.7 The Electromagnetic Spectrum
900(6)
Summary
906(1)
Questions and Problems
907(9)
Chapter 26 AC Electricity
916(28)
26.1 Alternating Current
917(2)
26.2 AC Electricity and Transformers
919(4)
26.3 Household Electricity
923(2)
26.4 Biological Effects and Electrical Safety
925(2)
26.5 Capacitor Circuits
927(2)
26.6 Inductors and Inductor Circuits
929(3)
26.7 Oscillation Circuits
932(5)
Summary
937(1)
Questions and Problems
938(6)
Part VI: Summary Electricity and Magnetism
944(1)
One Step Beyond The Greenhouse Effect and Global Warming
945(1)
Part VI: Problems
946(3)
Part VII Modern Physics
Overview: New Ways of Looking at the World
949(1)
Chapter 27 Relativity
950(36)
27.1 Relativity: What's It All About?
951(1)
27.2 Galilean Relativity
951(3)
27.3 Einstein's Principle of Relativity
954(3)
27.4 Events and Measurements
957(3)
22.5 The Relativity of Simultaneity
960(2)
27.6 Time Dilation
962(6)
27.7 Length Contraction
968(2)
27.8 Velocities of Objects in Special Relativity
970(1)
27.9 Relativistic Momentum
971(2)
27.10 Relativistic Energy
973(5)
Summary
978(1)
Questions and Problems
979(7)
Chapter 28 Quantum Physics
986(33)
28.1 X Rays and X-Ray Diffraction
987(2)
28.2 The Photoelectric Effect
989(6)
28.3 Photons
995(2)
28.4 Matter Waves
997(3)
28.5 Energy Is Quantized
1000(2)
28.6 Energy Levels and Quantum Jumps
1002(3)
28.7 The Uncertainty Principle
1005(2)
28.8 Applications and Implications of Quantum Theory
1007(3)
Summary
1010(1)
Questions and Problems
1011(8)
Chapter 29 Atoms and Molecules
1019(35)
29.1 Spectroscopy
1020(2)
29.2 Atoms
1022(3)
29.3 Bohr's Model of Atomic Quantization
1025(2)
29.4 The Bohr Hydrogen Atom
1027(5)
29.5 The Quantum-Mechanical Hydrogen Atom
1032(2)
29.6 Multi-electron Atoms
1034(3)
29.7 Excited States and Spectra
1037(4)
29.8 Molecules
1041(1)
29.9 Stimulated Emission and Lasers
1042(4)
Summary
1046(1)
Questions and Problems
1047(7)
Chapter 30 Nuclear Physics
1054(36)
30.1 Nuclear Structure
1055(2)
30.2 Nuclear Stability
1057(3)
30.3 Forces and Energy in the Nucleus
1060(2)
30.4 Radiation and Radioactivity
1062(6)
30.5 Nuclear Decay and Half-Lives
1068(5)
30.6 Medical Applications of Nuclear Physics
1073(6)
30.7 The Ultimate Building Blocks of Matter
1079(4)
Summary
1083(1)
Questions and Problems
1084(6)
Part VII: Summary Modern Physics
1090(1)
One Step Beyond: The Physics of Very Cold Atoms
1091(1)
Part VII: Problems
1092
Appendix A: Mathematics Review A-1
Appendix B: Periodic Table of Elements A-3
Appendix C: Atomic and Nuclear Data A-4
Answers to Odd-Numbered Problems A-7
Credits C-1
Index I-1
About our authors Randy Knight taught introductory physics for 32 years at Ohio State University and California Polytechnic State University, where he is Professor Emeritus of Physics. Professor Knight received a Ph.D. in physics from the University of California, Berkeley and was a post-doctoral fellow at the Harvard-Smithsonian Center for Astrophysics before joining the faculty at Ohio State University. It was at Ohio State that he began to learn about the research in physics education that, many years later, led to Five Easy Lessons: Strategies for Successful Physics Teaching and this book, as well as Physics for Scientists and Engineers: A Strategic Approach. Professor Knights research interests are in the fields of laser spectroscopy and environmental science. When hes not in front of a computer, you can find Randy hiking, sea kayaking, playing the piano, or spending time with his wife Sally and their five cats.

Brian Jones has won several teaching awards at Colorado State University during his 30 years teaching in the Department of Physics. His teaching focus in recent years has been the College Physics class, including writing problems for the MCAT exam and helping students review for this test. In 2011, Brian was awarded the Robert A. Millikan Medal of the American Association of Physics Teachers for his work as director of the Little Shop of Physics, a hands-on science outreach program. He is actively exploring the effectiveness of methods of informal science education and how to extend these lessons to the college classroom. Brian has been invited to give workshops on techniques of science instruction throughout the United States and in Belize, Chile, Ethiopia, Azerbaijan, Mexico, Slovenia, Norway, and Namibia. Brian and his wife Carol have dozens of fruit trees and bushes in their yard, including an apple tree that was propagated from a tree in Isaac Newtons garden.

Stuart Field has been interested in science and technology his whole life. While in school he built telescopes, electronic circuits, and computers. After attending Stanford University, he earned a Ph.D. at the University of Chicago, where he studied the properties of materials at ultralow temperatures. After completing a postdoctoral position at the Massachusetts Institute of Technology, he held a faculty position at the University of Michigan. Currently at Colorado State University, Stuart teaches a variety of physics courses, including algebra-based introductory physics, and was an early and enthusiastic adopter of Knights Physics for Scientists and Engineers. Stuart maintains an active research program in the area of superconductivity. Stuart enjoys Colorados great outdoors, where he is an avid mountain biker; he also plays in local ice hockey leagues.