Alinoonva
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Hi all,
I have been interested in the conversion of sound into electrical energy as well. I have been reading everyones post about this and how it is seemingly impossible or yet not efficient to convert sound energy into electricity. I am not a physicist but I do study biology and the human ear basically converts sound into electrical signals which are then interpreted by the brain. What I am interested in is understanding how to measure whether this is an energy consuming process (some sort of amplification which I don't think it is) or not. If it is not energy consuming that the largest problem is physically bringing dissipated sound from a large area into a small condensed area where it can create mechanical motion.
The ear takes sound from a large space (via the outer ear) and then propagates that sound through the auditory canal into a smaller more condensed space and causes vibration to the tympanic membrane which causes vibration of the malleus incus and stapes connected to the fluid filled cochlea. Inside the cochlea there are hair like cells... the vibration of the fluid moves these hair like cells (mechanical energy) and that movement is converted into nerve impulse and sent to the brain via the cochlear nerve.
I know this is possible I would really appreciate some help as how to create measurement protocols so I can assess this.
I have been interested in the conversion of sound into electrical energy as well. I have been reading everyones post about this and how it is seemingly impossible or yet not efficient to convert sound energy into electricity. I am not a physicist but I do study biology and the human ear basically converts sound into electrical signals which are then interpreted by the brain. What I am interested in is understanding how to measure whether this is an energy consuming process (some sort of amplification which I don't think it is) or not. If it is not energy consuming that the largest problem is physically bringing dissipated sound from a large area into a small condensed area where it can create mechanical motion.
The ear takes sound from a large space (via the outer ear) and then propagates that sound through the auditory canal into a smaller more condensed space and causes vibration to the tympanic membrane which causes vibration of the malleus incus and stapes connected to the fluid filled cochlea. Inside the cochlea there are hair like cells... the vibration of the fluid moves these hair like cells (mechanical energy) and that movement is converted into nerve impulse and sent to the brain via the cochlear nerve.
I know this is possible I would really appreciate some help as how to create measurement protocols so I can assess this.