Examples of using Auditory cortex in English and their translations into Japanese
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They send the results of their analysis up to the auditory cortex.
The auditory cortex is the brain's most highly organized sound processing unit.
If you do this it turns out, the auditory cortex will learn to see.
The auditory cortex is the most highly organized processing unit of sound in the brain.
Listening processes involveprocessing sound waves into neuronal activity in the auditory cortex of the brain.
Without exposure to sound, the auditory cortex wouldn't get enough stimulation to develop properly.
Neurologists found out recently that when you open your mouth to create a sound,your own auditory cortex shuts down.
The tertiary auditory cortex supposedly integrates everything into the overall experience of music.[4].
Parts of the brain that would normally process sounds(the so-called auditory cortex) are also activated by visual stimuli, for example.
About half of the whole auditory cortex lit up in dogs when listening to these noises, compared with 3% of the same area in humans.
They find that chronicexposure to these low-level sounds results in damage to the auditory cortex and an impairment in sound discrimination.
The above self-generated sound suppression by the semi-blind separation can be understood as an engineeringcase of the processing that is terminated at a primary auditory cortex.
It is located behind the primary auditory cortex, near the beginning of the lateral ridge in the left hemisphere.
Information Manipulation: Finally,the auditory information received by the ear is sent to the auditory cortex in the temporal lobes.
The sense of sound is produced in the auditory cortex. Sound waves are directed into the external auditory canal by the auricle.
The frontal lobe biochips are attached to the optical nerve of both eyes andconnected to the auditory cortex of the brain with artificial synapses.
This is a block diagram of a modeland simulation of the human auditory cortex that actually works quite well-- in applying psychoacoustic tests, gets very similar results to human auditory perception.
The frontal lobe biochips are attached to the optical nerve of both eyes andconnected to the auditory cortex of the brain with artificial synapses.
The study shows that not only is the auditory cortex activated by silent visual stimuli that are sound-implying but that this activity also differentiates between sounds related to different categories such as animals, musical instruments and objects.
And let's start simple-- let's start with one listener and one brain area:the auditory cortex that processes the sounds that come from the ear.
What you see in the regions in blue, which lies in auditory cortex, are the brain areas that respond more to the real laughs, and what seems to be the case, when you hear somebody laughing involuntarily, you hear sounds you would never hear in any other context.
This range will become narrower due to ageing or noise exposure. Sound waves create signals in the inner ear,which are transmitted to the auditory cortex by the cochlear nerve and auditory pathway.
When they analyzed the imaging data they found that activity from the auditory cortex recorded while subjects were seeing these videos was sufficient to classify whether the images being seen showed animals, musical instruments, or sound-producing objects.
In fact, when researchers at Dartmouth played small snippets of familiar songs to research subjects,they found that the auditory cortex of the brain continued the song in the subjects' heads even after the music stopped.
The auditory cortex is usually thought to be activated only by sounds, and this study adds to evidence supporting the idea that sensory cortex activity is not driven entirely by sensory stimulation such as actually hearing a sound, but instead, also reflects perceptual experiences.
It's because you're all doing a cross-model synesthetic abstraction, meaning you're saying that that sharp inflection-- ki-ki,in your auditory cortex, the hair cells being excited-- Kiki, mimics the visual inflection, sudden inflection of that jagged shape.
Some examples are, an introduction to howresearch is done on neural activity in the auditory cortex of the brain, presentation on research into whether the tone colors we hear from a violin depend on the directivity, and an introduction to an immersive auditory display system that its inventors call"Sound Cask.
And when we did that,we didn't see responses that are similar in auditory cortices in language, because the language and sound are very different.