Direct. The higher the frequency the higher the energy.
The higher the frequency of a wave the greater the energy
The energy PER PHOTON is directly proportional to the frequency. Specifically, E=hf, where h is Planck's constant.
There is a direct correlation between the amplitude of a wave and its energy. The greater the amplitude, the more energy it carries compared to the same wave of lower amplitude.
The energy of an electromagnetic wave is Energy = h x frequency. The ratio of energy to frequency is Planck's Constant h=E/f = 2/3 E-33 joule seconds.
amplitude and energy both use frequency
Higher amplitude and higher energy.
carbon
Frequency is how close waves follow one another, usually given for one second of time. This can alos be measure in the length between successive waves. For example, a frequency of 14.5 megaHertz has a wavelength of about 20 meters. For electromagnetic waves, the relationship is simple: Energy of the photon equals the frequency of the EM wave times Planck's Constant.
Depends on the wave. In electromagnetic waves, a shorter wavelength means a higher frequency - and the energy of a photon is directly proportional to frequency.
Electromagnetic waves of higher energy have a higher frequency and a smaller wavelength.Electromagnetic waves of higher energy have a higher frequency and a smaller wavelength.Electromagnetic waves of higher energy have a higher frequency and a smaller wavelength.Electromagnetic waves of higher energy have a higher frequency and a smaller wavelength.
frequency x wavelength = speed of the wave. This applies to all waves, not just to electromagnetic waves.
The relationship between frequency and energy of electromagnetic radiation was first described by the theoretical physicist Max Planck. He stated that the energy (E) of a single photon is directly proportional to the frequency of its associated electromagnetic wave (v). The coefficient of this proportionality is the Planck Constant (h). The relationship between frequency and energy is thus defined:E = hvThe value of h is 6.62606957(29)×10−34 joule-seconds.Since the frequency of light, v, can be defined as v = c/λ, we can re-write the energy calculation as:E = (hc)/λNote that these definitions are only true for electromagnetic radiation; the proportionality of frequency and energy in other types of waves is also true, but the relationship is not defined by the Planck constant in such cases.
Frequency, Length, Energy.
Frequency is how close waves follow one another, usually given for one second of time. This can alos be measure in the length between successive waves. For example, a frequency of 14.5 megaHertz has a wavelength of about 20 meters. For electromagnetic waves, the relationship is simple: Energy of the photon equals the frequency of the EM wave times Planck's Constant.
Depends on the wave. In electromagnetic waves, a shorter wavelength means a higher frequency - and the energy of a photon is directly proportional to frequency.
Electromagnetic waves of higher energy have a higher frequency and a smaller wavelength.Electromagnetic waves of higher energy have a higher frequency and a smaller wavelength.Electromagnetic waves of higher energy have a higher frequency and a smaller wavelength.Electromagnetic waves of higher energy have a higher frequency and a smaller wavelength.
No. The radio waves has got the lowest frequency, light waves has got in between frequency and the X-rays has got the highest frequency of the three types of waves.No.
The product of (wavelength) times (frequency) is equal to the speed of the wave.
frequency x wavelength = speed of the wave. This applies to all waves, not just to electromagnetic waves.
Wavelength and frequency are inversely proportional. The higher the frequency, the shorter (lower) the wavelength. Energy is proportional to frequency, and higher frequency waves will have a higher energy. Mathematically, frequency = 1 divided by wavelength, or f = 1/λ Use the link below for more information, including a diagram or two to make things clearer.
The relationship between frequency and energy of electromagnetic radiation was first described by the theoretical physicist Max Planck. He stated that the energy (E) of a single photon is directly proportional to the frequency of its associated electromagnetic wave (v). The coefficient of this proportionality is the Planck Constant (h). The relationship between frequency and energy is thus defined:E = hvThe value of h is 6.62606957(29)×10−34 joule-seconds.Since the frequency of light, v, can be defined as v = c/λ, we can re-write the energy calculation as:E = (hc)/λNote that these definitions are only true for electromagnetic radiation; the proportionality of frequency and energy in other types of waves is also true, but the relationship is not defined by the Planck constant in such cases.
Frequency and energy are related by the following: E = hf where h is Planck's constant, E is the energy in J, and f is the frequency in Hz. Remember that the product of any wavelength and its frequency is equal to the speed of light.
In the case of electromagnetic wave, the energy of a photon is directly proportional to the frequency. For other types of waves, the situation may be different.
if wave amplitudes are equal ,will high frequency waves carry more or less energy than low frequency waves