How Things Work: The Physics of Everyday Life

Bloomfield, Louis A.

ISBN 10: 0471381519 / ISBN 13: 9780471381518

Published by Wiley, 2001

About this Item

Connecting readers with great books since 1972! Used textbooks may not include companion materials such as access codes, etc. May have some wear or writing/highlighting. We ship orders daily and Customer Service is our top priority!

Seller Inventory # S_381008196

Bibliographic Details

• Title: How Things Work: The Physics of Everyday Life
• Publisher: Wiley
• Publication Date: 2001
• Language: English
• ISBN 10: 0471381519
• ISBN 13: 9780471381518
• Binding: paperback
• Edition: 2nd Edition
• Condition: Good

About this title

Synopsis

Written primarily for a one-term, undergraduate level course, this book attempts to convey an understanding and appreciation for the concepts and principles of Physics by finding them within specific objects of everyday experience. It's primary market are liberal arts students who are seeking a connection between science and the world they live in; among its many secondary markets are the growing number of institutions offering courses with scientific real-world context. These courses may also be offered to students from the Sciences, Engineering, Architecture, and other technical fields.

From the Back Cover

HOW THINGS WORK is about ordinary objects and the physics concepts that make them possible. Its cover illustrates how often waves appears in our world. While ocean surf is clearly an example of waves (p. 250), so is the light form the lighthouse, the rippling motion of the guitar strings, and the sound emerging from the CD in its player.

When you pluck a guitar song, you fill it with waves. The strength of these waves and the timbre of the resulting sound depend upon where and how you plucked the string and on the structure of the guitar itself. You can distinguish a guitar from a piano or help by listening for the unique mixture of waves on its strings (p. 242).

A lighthouse uses an enormous lens to bend light waves from its lamp into a narrow beam that sailors can see for a hundred kilometers. A large-diameter lens is needed because waves leaving a small-diameter lens spread outward like ripples on a pond and can't stay together as a bright, narrow beam (p. 427).

A CD encodes the air pressure fluctuations in sound waves as a pattern of tiny pits on its shiny surface. The CD player reads these pits with a laser to reproduce the recorded sound. Arcs of audio and error-recovery information are arranged in a spinal around the disk's center so that a scratch outward from the middle of the disk is unlikely to cause any noticeable loss of music (p. 424).