Given a wave f(x, t), we call period T the interval of time we need to wait before the form of the wave is repeated. Obviously, we must choose a constant x and observe the wave passing trough it.
For exemple, for f(x, t) = ei(kx - wt) it's f(x, t + T) = ei(kx - w(t + T)), so that we have 0 = f(x, t + T) - f(x, t) = ei(kx - wt) (e-iwT - 1) → e-iwT = 1 → T = n 2π/w, with n element of Z. If we are considering two near peaks of f (that is a good way to define T) n = 1, and we have the famous T = 2π/w.
Wave frequency f, and period of wave T are inverses, related by fT=1.
Just divide the wavelength by the wave period, and you've got the wave speed.
Period = 1 / frequency
Period = 1/78.6 seconds = 0.01272 seconds
The period of a wave is defined as the time taken by a wave to complete one oscillation. While, the frequency of a wave is defined as the number of oscillations completed by a wave in one second.
A wave length.
The reciprocal of the period of ANY wave is the wave's frequency.
If a radio wave has a period of one then the period wave or two would be 2. This is math.
Wave frequency f, and period of wave T are inverses, related by fT=1.
Wave speed = (wavelength)/(period)
When a wave period decreases, speed increases.
Just divide the wavelength by the wave period, and you've got the wave speed.
Period = 1 / frequency
yes as, period time = 1/ frequency
Period = 1/78.6 seconds = 0.01272 seconds
If the period increases, the frequency decreases.The product of (frequency) times (period) is always ' 1 '.
A wave period is the time for one complete cycle; therefore, a period is the same as one wavelength