Energy = Plank's constant times the speed of light divided by the wavelength of the electromagnetic radiation in question.
as a formula:
E = h * c / lambda
E - energy
h - Plank's constant
c - speed of light
lambda - wavelength
A shorter wavelength means higher frequency at a given speed. A+
Electromagnetic Energy= hc/wavelength where h is Planck's Constant anbd c the speed of light.
At smaller wavelengths, the frequency is higher. Energy is proportional to the frequency.
s
shortest wavelengths
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.
Lowest energy is at lowest frequency, i.e. longest wave length.
Monochromatic, coherent, electromagnetic energy tuned over a wide range of frequencies/wavelengths.
There is no relation between medical uses of electromagnetic energy and alternative devices. There are no available scientific evidence to support claims in treating any diseases with the use of electromagnetism.
Various wavelengths of electromagnetic radiation.
s
shortest wavelengths
E = hc/l
no
The relationship between wavelength and energy depends on the type of wave. For electromagnetic waves, the shorter wavelengths are associated with higher energy levels. Electromagnetic energy travels in waves, and the length of the wave is inversely proportional to the energy the wave carries. Higher energy, shorter wavelengths. Lower energy, longer wavelengths.
Less than 300nm
Their respective wavelengths (frequencies).
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.
Lowest energy is at lowest frequency, i.e. longest wave length.
Monochromatic, coherent, electromagnetic energy tuned over a wide range of frequencies/wavelengths.