Wavelength and frequency are locked together in an inverse proportionality. If the frequency of a wave is constant, the wavelength of the wave will be constant. Increase one and the other decreases. Decrease one and the other increases. That said, let's look at the dynamics of a tsunami, which may be the general direction in which this was heading. In a tsunami, the wave moves very quickly in the open ocean, and it has a long wavelength. As it closes on shore, the leading edge of the wave slows down as the sea bottom "rises up" to meet the wave. As the leading edge of the wave continues to slow down, the "rest of the wave" begins to "catch up" with the wave front. This causes the wave to build; its height will increase. The actual wavelength is decreasing (and its frequency will be increasing), and the wave continues to slow down. Higher and higher it will build, and then it will break on the shore and carry inland.
If the frequency decreases, the wavelength increases. Wavelength lambda and frequency f are connected by the speed cof the medium. c can be air = 343 m/s at 20 degrees celsius or water at 0 dgrees = 1450 m/s. c can be light waves or electromagnetic waves = 299 792 458 m/s. The formulas are: c = lambda x f f = c / lambda lambda = c / f
the frequancy of a wave is always equal to the rate of vibration of the source that creates it.
This never happens, i repeat, "never happens". Frequency is inversly proportional to wavelength.
Since the frequency of vibration remains the same, wavelength becomes shorter as speed decreases. Use the wave equation: speed = frequency x wavelength
The wavelength goes up. (or gets longer)
The wavelength decreases.
debra elder
The speed. Also, the wavelength, since the speed is equal to wavelength x frequency, and the frequency will normally NOT change.
There is no way to change the wave speed, propagation speed other than changing the density of the medium. If you increase the frequency the wavelength gets shorter, which is true with both light and sound, so if the wavelength is increased the frequency will be less. Since the speed slows in a denser material we can make lenses and prisms.
The frequency of a wave is detemined by the source, and it stays constant, so if the wave enters a medium where the speed is slower, the wavelength becomes shorter.
When a photon goes say from air to water, it slows down according to; n=c/v where n is refractive index of water c is velocity of light in air v is velocity of light in water It is stated that the frequency of the photon doesn't change when the photon enters the water. Only the wavelength changes.
Swell "feels" bottom (half the wavelength), circular water particles change to flattened eclipses. Wavelength slows down, but period remains the same, wave becomes too high for its wavelength. Crest moves ahead of the base b/c of a 3:4 ratio of wave height to water depth and breaks.
It will not change. Glass slows light but does not change it frequency.
The speed. Also, the wavelength, since the speed is equal to wavelength x frequency, and the frequency will normally NOT change.
As the basic formula of all types of waves is (Velocity of a wave=the product of the wavelength of it and its frequency). In this case, frequency of a certain wave is constant and the velocity is decreasing. And as the velocity is directly proportional to the wavelength, the wavelength of the wave shortens as a result.
There is no way to change the wave speed, propagation speed other than changing the density of the medium. If you increase the frequency the wavelength gets shorter, which is true with both light and sound, so if the wavelength is increased the frequency will be less. Since the speed slows in a denser material we can make lenses and prisms.
The frequency of a wave is detemined by the source, and it stays constant, so if the wave enters a medium where the speed is slower, the wavelength becomes shorter.
Wavelength and frequency are locked together in an inverse proportionality. If the frequency of a wave is constant, the wavelength of the wave will be constant. Increase one and the other decreases. Decrease one and the other increases. That said, let's look at the dynamics of a tsunami, which may be the general direction in which this was heading. In a tsunami, the wave moves very quickly in the open ocean, and it has a long wavelength. As it closes on shore, the leading edge of the wave slows down as the sea bottom "rises up" to meet the wave. As the leading edge of the wave continues to slow down, the "rest of the wave" begins to "catch up" with the wave front. This causes the wave to build; its height will increase. The actual wavelength is decreasing (and its frequency will be increasing), and the wave continues to slow down. Higher and higher it will build, and then it will break on the shore and carry inland.
Wavelength and frequency are locked together in an inverse proportionality. If the frequency of a wave is constant, the wavelength of the wave will be constant. Increase one and the other decreases. Decrease one and the other increases. That said, let's look at the dynamics of a tsunami, which may be the general direction in which this was heading. In a tsunami, the wave moves very quickly in the open ocean, and it has a long wavelength. As it closes on shore, the leading edge of the wave slows down as the sea bottom "rises up" to meet the wave. As the leading edge of the wave continues to slow down, the "rest of the wave" begins to "catch up" with the wave front. This causes the wave to build; its height will increase. The actual wavelength is decreasing (and its frequency will be increasing), and the wave continues to slow down. Higher and higher it will build, and then it will break on the shore and carry inland.
it change into potential energy beace it slows down
The wavelength decreases
When a photon goes say from air to water, it slows down according to; n=c/v where n is refractive index of water c is velocity of light in air v is velocity of light in water It is stated that the frequency of the photon doesn't change when the photon enters the water. Only the wavelength changes.
Swell "feels" bottom (half the wavelength), circular water particles change to flattened eclipses. Wavelength slows down, but period remains the same, wave becomes too high for its wavelength. Crest moves ahead of the base b/c of a 3:4 ratio of wave height to water depth and breaks.
it will lose time. it slows as you change level....change of gravity