List the correct order of structures encountered by sound waves traveling into the ear: 1-tympanic membrane (eardrum), 2-malleus (hammer bone), 3-incus (anvil bone), 4-stapes (stirrup bone), 5-round window of cochlea. The Vestibulocochlear (VIII) is a sensory nerve for the sense of hearing and balance.

Auditory cortex, thalamus, auditory nerve. – correctly lists the structures through which sound travels after being converted into neural signals. This answer has been confirmed as correct and helpful.

The right answer is C. thalamus, spinal cord, somatosensory cortex.

The correct answer is option B “auditory cortex, thalamus, auditory nerve”. When a sound enters into the ear, its travel starts in the auditory cortex causing the eardrum to vibrate. Then into the thalamus, the vibration causes the hairs to bend at a certain frequency.

Here are 6 basic steps to how we hear:

1. Sound transfers into the ear canal and causes the eardrum to move.
2. The eardrum will vibrate with vibrates with the different sounds.
3. These sound vibrations make their way through the ossicles to the cochlea.
4. Sound vibrations make the fluid in the cochlea travel like ocean waves.

According to a new study, internal speech makes use of a system that is mostly employed for processing external speech, which is why we can “hear” our inner voice. According to the study, this prediction usually filters out self-made sounds so we don’t hear them externally, but rather internally.

Sound is produced when an object vibrates, creating a pressure wave. As the particles vibrate, they move nearby particles, transmitting the sound further through the medium. The human ear detects sound waves when vibrating air particles vibrate small parts within the ear.

Sound waves enter the outer ear and travel through a narrow passageway called the ear canal, which leads to the eardrum. The eardrum vibrates from the incoming sound waves and sends these vibrations to three tiny bones in the middle ear.

Sound waves travel into the ear canal until they reach the eardrum. The eardrum passes the vibrations through the middle ear bones or ossicles into the inner ear. The inner ear is shaped like a snail and is also called the cochlea. Inside the cochlea, there are thousands of tiny hair cells.

Sound waves enter the ears and travel down a canal at the end of which is a thin, tightly stretched membrane called eardrum. As the sound wave strikes the eardrum, it vibrates and the vibrations reach the inner ear which sends signals to the brain. The brain interprets the signals and we hear the sound.

We hear when sound waves travel through the air to our eardrum, across our middle ear, into our inner ear, and finally to the auditory centers of our brain. Our ears are always on and are continuously carrying sounds along this hearing pathway.

Auditory information is analyzed by multiple brain centers as it flows to the superior temporal gyrus, or auditory cortex, the part of the brain involved in perceiving sound. In the auditory cortex, adjacent neurons tend to respond to tones of similar frequency.

Sound waves entering the ear travel through the external auditory canal before striking the eardrum and causing it to vibrate. The eardrum is connected to the malleus, one of three small bones of the middle ear. Also called the hammer, it transmits sound vibrations to the incus, which passes them to the stapes.

The auditory cortex is the part of the temporal lobe that processes auditory information in humans and many other vertebrates. It is a part of the auditory system, performing basic and higher functions in hearing, such as possible relations to language switching.

Cerebrum

The primary gustatory cortex is a brain structure responsible for the perception of taste. It consists of two substructures: the anterior insula on the insular lobe and the frontal operculum on the inferior frontal gyrus of the frontal lobe.

about 3 pounds

The human brain is roughly the size of two clenched fists and weighs about 1.5 kilograms. Brain tissue is made up of about 100 billion nerve cells (neurons) and one trillion supporting cells which stabilize the tissue.

The volume of the human brain has increased as humans have evolved (see Homininae), starting from about 600 cm3 in Homo habilis up to 1680 cm3 in Homo neanderthalensis, which was the hominid with the biggest brain size….Brain size.