This book incorporates the developments in digital audio technology, including consumer products, into a firm foundation of the physics of sound. No knowledge of physics, mathematics, or music is required.Includes updated information on musical synthesizers. Provides recent information on the ear, including new advances in cochlear implant technology. Updates material for modern technology, particularly MP3. Features abundant examples, including discussion of demonstration experiments. Includes historical discussion of musical temperaments and instruments. Offers videotapes of musical demonstrations on topics discussed in the book, available from author.A useful reference for musicians or anyone interested in learning more about the physics of music.
Professor Richard E. Berg received his B.S. degree in music from Manchester College (Indiana), with emphasis on piano and clarinet, and M.S. and Ph.D. degrees in physics from Michigan State University. After completing his Ph.D. thesis in the area of cyclotron design, be began work on the construction of the cyclotron at the University of Maryland. This work included design and construction of the external beam transport system, design of solid state radiation detectors, and support for research in nuclear physics using the cyclotron. In 1972 he became the director of the University of Maryland Physics Lecture-Demonstration Facility, which has since developed one of the largest and most diverse collections of physics demonstrations in the world. He has initiated courses in Physics of Music laboratory, and an honors course, Nuclear Physics and Society, involving applications of nuclear physics and radiation to contemporary society. Professor Berg has sung and played renaissance wind instruments with University of Maryland Collegium Musicum for over 20 years. He has also played harpsichord and recorder in a smaller group known as the Go for Baroque Ensemble. Professor Berg has been active in physics outreach programs, annually presenting a series of public demonstration programs called Physics is Phun, which has been attended by more than 100,000 people since 1982. Over his career he has presented more than 500 traveling demonstration programs to area school groups and more than 300 smaller programs at the University of Maryland for visiting groups. In the photograph Professor Berg is shown demonstrating the twelve-harmonic variable frequency digital Fourier synthesizer designed and constructed at the University of Maryland.
David G. Stork is Chief Scientist of Ricoh Innovations, Inc., and Consulting Professor of Electrical Engineering at Stanford University. He received his B.S. degree in physics from the Massachusetts Institute of Technology, and his M.S. and Ph.D. degrees in physics from the University of Maryland. Dr. Stork is an accomplished orchestral and chamber timpanist/percussionist, has performed in major concert halls throughout the United States, and performed on more than a dozen compact disks, including four world premier recordings. His principal research interests are in pattern classification, machine learning, and novel uses of the internet. He is an award-winning teacher (Ralph D. Myers Teaching Award, University of Maryland) and publishes and lectures widely on his research and scholarly topics as diverse as Renaissance painting and the relation of science fiction to science fact. His other books include Pattern Classification (2nd ed., Wiley 2000, W R. Duda and P Hart), Speechreading by Humans and Machines (Springer, 1996, W M. Hennecke), Seeing the Light (Whey, 1986, W D. Falk and D. Brill), and HAL's Legacy: 2001's Computer as Dream and Reality (MIT 1997), the latter serving as the source for his PBS television documentary "2001: HAL's Legacy." Dr. Stork sits on the editorial boards of four international journals and is a member of IEEE (Institute of Electrical and Electronics Engineers), ACM (Association for Computing Machinery), OSA (Optical Society of America), INNS (International Neural Network Society), and the Sigma XI Honorary Research Society.
The Physics of Soundwas written for an introductory course in acoustics for nonscientists. A background in neither physics nor mathematics above high school algebra is required. Traditionally, such courses have been tailored to music majors; nonmusicians either do not enroll or do not fully appreciate the physical principles because they are applied almost exclusively to musical topics. We have tried to avoid this limitation by dividing the text into three main sections.Chapters 1-4 present the basic physics essential for virtually all topics in the text: simple harmonic motion, wave principles, resonance, standing waves, the overtone series, Fourier synthesis, and spectrum analysis. No previous musical knowledge is required to appreciate these chapters, and a brief summary of the basic musical notation used in these chapters is provided in Appendix A. Applications and illustrations come from a variety of musical and nonmusical areas. We have revised Chapter 1 with additional discussion of SHM and apply these concepts to debunking psychokinetic myths. Our discussion of wave properties of sound in Chapter 2 has been revised to include a discussion of modern applications such as noise cancellation technology, highway noise barriers, and ultramodern sonogram technology.Chapters 5-8 illustrate the principles outlined in Chapters 1-4 and are of general interest to the musician and the nonmusician alike. The use of musical concepts and notation has been minimized so as to retain the broadest base of appeal, but the more important musical aspects of each topic are still included. For example, Chapter 7 on sound reproduction and Chapter 8 on room acoustics illustrate the principles presented in earlier chapters and are of substantial interest because of the part they play in our daily lives. We use the discussion of analog synthesizers in Chapter 5 as an opportunity to investigate the differences between sounds by studying how these sounds are created in a synthesizer. Our treatment of digital synthesizers has been updated to include use of computers as an integral part of the synthesizer system. The material on MIDI systems includes further discussion of how these systems are used to compose music and to aid musical performance using contemporary computer programs such as Sibelius. We have also added a section on physics and synthesizers in contemporary electroacoustic music composition. Chapter 6 discusses the principles of the ear and the voice at an elementary level, but has been updated with a section on cochlear implants, which have literally dated a revolution in education of hearing disabled children. We have also included 4 section on the use of audio spectrograms in teaching language to the hearing disabled. Chapter 7 has been thoroughly revised from the second edition to include a discussion of MP3 using the concepts of spectral analysis and masking covered previously. Chapter 8 has been updated with a discussion of visual and musical features for a new auditorium at the University of Maryland. The first eight chapters contain the core material for a one-semester course in the physics of sound and music.Chapters 9-14 are more specialized. Each of these chapters independently treats a different aspect ofmusicalacoustics and is best (though not exclusively) understood by those with some musical experience. Photographs of families of contemporary instruments have been added to the chapters on woodwinds and brasses. Any of the final six chapters could be studied in class or could naturally be assigned to students on an individual basis.Unlike most authors of elementary acoustics texts, we have treated the historical development of instruments, paying particular attention to acoustical developments. We have also tried to relate the physical principles of contemporary instruments to performance technique; the knowledge ofhowandwhyan instrument works and its limitations an