4mm / (1.54mm/us) = 1 sound wave every 2.5974us.
1,000,000us per second.
1,000,000/2.5974 = [385,000Hz]
With proper sigfigs = 4 x 10^5 (if the values given here are exact)
wave length and frequency are the product of the wave speed, so the wave speed is a constant variable and the other two are inversely proportional the wave length increases, as the frequency decreases
A digital wave length emits a constant signal that quickly declines when out of range (XTS3000 portable radio) An analog wave length gradually declines when out of range (GTX radio)
speed = freq. X wavelength Hence frequency and wavelength are inversely related when the speed is same. So if the frequency is doubled, then wavelength becomes half of the initial length.
Wavelength x frequency = speed of the wave.
It is a constant which is equal to the speed.
v = w*f. If w (wave length) is increased f (frequency) must go down to keep v (velocity) constant.
Of course,velocity and wave length change.But frequency is constant.
A harmonic wave of certain length and amplitude. The wave could be sinusoidal, disturbed of Fourier structure, pulsed of high amplitude and short wave length, of even or odd harmonics, or amixture of constant and variable amplitude.
gives the relation between refrective index and wave length of light
It depends on the type of wave you mean and the situation applied to. Water waves slow down when they reach shallow water and their wave-length shortens. This is why waves 'break', the back-side of the wave over-takes the slower lead-side. Light waves, when they encounter a polar molecule are absorbed and remitted at a shorter wave length. Electrons (wave-particle duality) change their wave-length when changing energy states.
The speed of electromagnetic radiation stays constant at a speed of 299,792,458 metres per second.
An amplitude modulated signal consists of a CW (continuous wave) at the carrier frequency, plus two components for each frequency in the modulating information. The two components are separated from the carrier by a frequency equal to the modulating frequency, with one above and one below the carrier frequency. Thus, the modulating information appears twice in the spectrum of the modulated signal.