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produced by a tuning fork

Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

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Page 1: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Page 2: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.2 A sine wave and its projection as circular motion

Page 3: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Box 13B Music

Page 4: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.3 The human ear

Page 5: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Box 13C Sensorineural Hearing Loss and Cochlear Implants

Page 6: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.4 The cochlea

Page 7: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.4 The cochlea (Part 1)

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Figure 13.4 The cochlea (Part 2)

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Figure 13.4 The cochlea (Part 3)

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Figure 13.5 Traveling waves along the cochlea

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Figure 13.5 Traveling waves along the cochlea (Part 1)

Page 12: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.5 Traveling waves along the cochlea (Part 2)

Page 13: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.6 Vertical movement of the basilar membrane bends the stereocilia of the hair cells

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Figure 13.6 Vertical movement of the basilar membrane bends the stereocilia of hair cells (Part 1)

Page 15: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.6 Vertical movement of the basilar membrane bends the stereocilia of hair cells (Part 2)

Page 16: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.7 The hair bundle in cochlear and vestibular hair cells

Page 17: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.8 Mechanoelectrical transduction mediated by hair cells

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Figure 13.9 Mechanoelectrical transduction mediated by vestibular hair cells

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Figure 13.9 Mechanoelectrical transduction mediated by vestibular hair cells (Part 1)

Page 20: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.9 Mechanoelectrical transduction mediated by vestibular hair cells (Part 2)

Page 21: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.9 Mechanoelectrical transduction mediated by vestibular hair cells (Part 3)

Page 22: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.10 Depolarization and repolarization of hair cells is mediated by K+

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Figure 13.11 Response properties of auditory nerve fibers

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Figure 13.11 Response properties of auditory nerve fibers (Part 1)

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Figure 13.11 Response properties of auditory nerve fibers (Part 2)

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Figure 13.11 Response properties of auditory nerve fibers (Part 3)

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Figure 13.12 The major auditory pathways

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Figure 13.12 The major auditory pathways (Part 1)

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Figure 13.12 The major auditory pathways (Part 2)

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Figure 13.13 How the MSO computes the location of a sound by interaural time differences

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Figure 13.13 How the MSO computes the location of a sound by interaural time differences

Page 32: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.14 LSO neurons encode sound location through interaural intensity differences

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Figure 13.14 LSO neurons encode sound location through interaural intensity differences (Part 1)

Page 34: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.14 LSO neurons encode sound location through interaural intensity differences (Part 2)

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Figure 13.15 The human auditory cortex

Page 36: Figure 13.1 The periodic condensation and rarefaction of air molecules produced by a tuning fork

Figure 13.15 The human auditory cortex (Part 1)

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Figure 13.15 The human auditory cortex (Part 2)

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Box 13E(1) Representing Complex Sounds in the Brains of Bats and Humans

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Box 13E(2) Representing Complex Sounds in the Brains of Bats and Humans

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Box 13E(2) Representing Complex Sounds in the Brains of Bats and Humans (Part 1)

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Box 13E(2) Representing Complex Sounds in the Brains of Bats and Humans (Part 2)