figure 13.1 the periodic condensation and rarefaction of air molecules produced by a tuning fork

Post on 01-Jan-2016

214 Views

Category:

Documents

0 Downloads

Preview:

Click to see full reader

TRANSCRIPT

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

Box 13B Music

Figure 13.3 The human ear

Box 13C Sensorineural Hearing Loss and Cochlear Implants

Figure 13.4 The cochlea

Figure 13.4 The cochlea (Part 1)

Figure 13.4 The cochlea (Part 2)

Figure 13.4 The cochlea (Part 3)

Figure 13.5 Traveling waves along the cochlea

Figure 13.5 Traveling waves along the cochlea (Part 1)

Figure 13.5 Traveling waves along the cochlea (Part 2)

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

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

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

Figure 13.7 The hair bundle in cochlear and vestibular hair cells

Figure 13.8 Mechanoelectrical transduction mediated by hair cells

Figure 13.9 Mechanoelectrical transduction mediated by vestibular hair cells

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

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

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

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

Figure 13.11 Response properties of auditory nerve fibers

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

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

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

Figure 13.12 The major auditory pathways

Figure 13.12 The major auditory pathways (Part 1)

Figure 13.12 The major auditory pathways (Part 2)

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

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

Figure 13.14 LSO neurons encode sound location through interaural intensity differences

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

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

Figure 13.15 The human auditory cortex

Figure 13.15 The human auditory cortex (Part 1)

Figure 13.15 The human auditory cortex (Part 2)

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

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

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

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

top related