Principles & Practice of Physics, Global Edition

For courses in introductory calculus-based physics. For a strong, deep, and fundamentally simple understanding of physics Eric Mazur's groundbreaking Principles and Practice of Physics establishes an understanding of physics that is thorough and accessible. Mazur's unique pedagogy and popular peer-to-peer instruction techniques incorporate insights supported by physics education research (PER) to help students develop a true conceptual understanding alongside the quantitative skills needed in the course. The material emphasises core unifying ideas with the first half of each chapter teaching the ideas using words and images - not mathematics. The second half of each chapter casts the ideas into quantitative and symbolic form.  The 2nd Edition integrates key features from the Practice volume into the Principles volume and provides all Practice volume content in Mastering Physics. The new edition provides new prelecture material that better prepares students to come to class ready to participate and supports instructors in building active and relevant lectures. This product contains Volume 1 of Principles & Practice of Physics (Chapters 1-21)  and Volume 2 of Principles & Practice of Physics (Chapters 22-34) Samples Download the detailed table of contents. Preview a sample chapter from Principles & Practice of Physics, Global Edition  Features Conservation laws are the backbone of contemporary physics. The text develops conservation of momentum and energy before Newton's laws, and emphasises symmetry, conservation, and unity throughout. In mechanics, this approach avoids many of the pitfalls related to the concept of force, leads naturally to the two-body character of forces, and enables students to solve a range of problems before bringing in calculus. Concept of a system is used explicitly and consistently throughout the text. Many ideas in physics depend on distinguishing system from surroundings and selecting an appropriate system is a key skill for solving many types of problems.  Both Galilean and special relativity help to explain many ideas of physics. This text introduces reference frames in Chapter 6, and it covers special relativity in Chapter 14, rather than at the end of the second semester. Statistical treatment of thermodynamics in the text builds thermodynamics on a more logical and coherent foundation, starting with an accessible treatment of the statistical basis for entropy. The structured learning architecture with research-based instruction help students learn physics Each chapter is divided into a Concepts section and a Quantitative Tools section to help students build a robust understanding of the material instead of focusing too quickly on equations. The Concepts section develops the ideas in qualitative terms, using words and pictures and building from specific observations to general principles. The Quantitative Tools section formalises the ideas mathematically. The core ideas of mechanics are developed in one dimension, helping students to concentrate on learning them before tackling the mathematical complexities of two-dimensional analysis. Chapter 10, 'Motion in a Plane,' introduces the second dimension. Strong connection to experiment and experience. When possible, the text develops ideas from experimental observations that the student can make to help students work out the reasoning that leads from observations to principles. The text often reads like a dialog between author and reader, rather than the traditional authoritarian approach that states definitions and principles backed up with derivations and examples. Strong visual instruction presents figures as visual explanations and ideas in visual terms. In accordance with research on visual instruction, visuals incorporate explanation and are quite schematic, highlighting key relationships and omitting unnecessary detail. If figures do not require a third dimension, they do not use one. Many figures show multiple representations that combine a situation sketch with a graph or bar diagram. New to this edition An expanded user-friendly and interactive approach for students  Key features from the Practice volume now appear in the Principles volume, giving students access to content and features in one location.  Practice problems and Chapter Summaries are now located in the Principles eText. All Practice volume content and features are now located in Mastering Physics. Developing a Feel helps students to develop a quantitative feel for the quantities introduced in the chapter and to learn to make valid assumptions and estimates. Worked and Guided Example videos give students the opportunity to review a worked example before they attempt to solve a similar problem. Hints and questions guide them through each problem. The videos are embedded in the eText and available for practice in the Study Area of Mastering. Review Questions in the Pearson eText provide links that direct students to correlating places in the eText and interactive media and are assignable in Mastering Physics. Self-check features are now interactive in the eText to engage students andare closely integrated into the learning program.  Checkpoint questions often serve as the springboard for the next phase of the discussion.  Each Concepts section ends with a Self Quiz that lets students test their understanding of the material before proceeding. 

Table of Contents:
1. Foundations 2. Motion in One Dimension 3. Acceleration 4. Momentum 5. Energy 6. Principle of Relativity 7. Interactions 8. Force 9. Work 10. Motion in a Plane 11. Motion in a Circle 12. Torque 13. Gravity 14. Special Relativity 15. Periodic Motion 16. Waves in One Dimension 17. Waves in Two and Three Dimensions 18. Fluids 19. Entropy 20. Energy Transferred Thermally 21. Degradation of Energy 22. Electric Interactions 23. The Electric Field 24. Gauss’s Law 25. Work and Energy in Electrostatics 26. Charge Separation and Storage 27. Magnetic Interactions 28. Magnetic Fields of Charged Particles in Motion 29. Changing Magnetic Fields 30. Changing Electric Fields 31. Electric Circuits 32. Electronics 33. Optics 34. Wave and Particle Optics