To find the wavelength of the sound, you can use the formula:
\[ \text{Wavelength} (\lambda) = \frac{\text{Speed of Sound} (v)}{\text{Frequency} (f)} \]
Given that the speed of sound in seawater is approximately \(v = 1500 , \text{m/s}\) and the frequencies range from \(500 , \text{Hz}\) to \(4000 , \text{Hz}\), we can calculate the wavelengths for both frequencies.
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For \(f = 500 , \text{Hz}\): \[ \lambda = \frac{1500 , \text{m/s}}{500 , \text{Hz}} = 3 , \text{meters} \]
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For \(f = 4000 , \text{Hz}\): \[ \lambda = \frac{1500 , \text{m/s}}{4000 , \text{Hz}} = 0.375 , \text{meters} \]
Therefore, the approximate wavelengths of sound with which the California sea lions communicate range from \(0.375 , \text{meters}\) to \(3 , \text{meters}\).
The correct response is 0.375 to 3 meters.