A particularly beautiful note reaching your ear from a rare
Stradivarius violin has a wavelength of 39.1 cm. The room is
slightly warm, so the speed of sound is 344 m/s.
If the string's linear density is 0.720 g/m and the tension is 140
N , how long is the vibrating section of the violin string?
Note: pleae provide the answer with real mathmatical symboles, not
merely keybored parenthesis and slashes.
frequency of the note is f = v/lamda = 344/0.391 = 880 Hz
then using f = (1/2l)*sqrt(T/mu)
l is the required length of the string
T is the tension in the string = 140 N
mu is the linear density = 0.720*10^-3 kg/m
then length of the string is l = (1/2f)*sqrt(T/mu)
l = (1/(2*880))*sqrt(140/(0.720*10^-3)) = 0.2505 m = 25.05 cm
A particularly beautiful note reaching your ear from a rare Stradivarius violin has a wavelength of...
A particularly beautiful note reaching your ear from a rare Stradivarius violin has a wavelength of 39.1 cm. The room is slightly warm, so the speed of sound is 344 m/s. If the string's linear density is 0.550 g/m and the tension is 140 N , how long is the vibrating section of the violin string?
A particularly beautiful note reaching your ear from a rare Stradivarius violin has a wavelength of 39.1 cm. The room is slightly warm, so the speed of sound is 344 m/s. If the string's linear density is 0.740 g/m and the tension is 160 N , how long is the vibrating section of the violin string? Express your answer with the appropriate units.