A single electron can produce different types of radiation. Radiation, frequency, and wavelength all rely on each other. If an electron can produce multiple types of radiation, it can also produce different wavelengths and frequencies, because the wavelengths and frequencies are dependent on the radiation type.
The collective arrangement of all the possible frequencies of electromagnetic radiation is known as the electromagnetic spectrum. This spectrum includes radio waves, microwaves, infrared, visible light, ultraviolet, X-rays, and gamma rays, each with different wavelengths and frequencies.
Electromagnetic spectrum.
White light is a mix of different frequencies; with certain equipment, it is possible to separate it into its components. This separated version is called a "spectrum".White light is a mix of different frequencies; with certain equipment, it is possible to separate it into its components. This separated version is called a "spectrum".White light is a mix of different frequencies; with certain equipment, it is possible to separate it into its components. This separated version is called a "spectrum".White light is a mix of different frequencies; with certain equipment, it is possible to separate it into its components. This separated version is called a "spectrum".
It's possible it has low energy and high frequency.
All kinds of waves, including light, have different possible wavelengths and frequencies. What particular wavelength a light wave might have depends on how it was made. Now if two light rays with different wavelengths enter your eye can you tell there were two different wavelengths? The answer is yes, and the way you tell is that your brain reacts differently to the two waves. The way it reacts differently is by giving the two waves "color". So its not really the waves that have different colors its the way your brain interprets the different wavelengths.
The collective arrangement of all the possible frequencies of electromagnetic radiation is known as the electromagnetic spectrum. This spectrum includes radio waves, microwaves, infrared, visible light, ultraviolet, X-rays, and gamma rays, each with different wavelengths and frequencies.
Electromagnetic spectrum.
All kinds of waves, including light, have different possible wavelengths and frequencies. What particular wavelength a light wave might have depends on how it was made. Now if two light rays with different wavelengths enter your eye can you tell there were two different wavelengths? The answer is yes, and the way you tell is that your brain reacts differently to the two waves. The way it reacts differently is by giving the two waves "color". So its not really the waves that have different colors its the way your brain interprets the different wavelengths.
White light is a mix of different frequencies; with certain equipment, it is possible to separate it into its components. This separated version is called a "spectrum".White light is a mix of different frequencies; with certain equipment, it is possible to separate it into its components. This separated version is called a "spectrum".White light is a mix of different frequencies; with certain equipment, it is possible to separate it into its components. This separated version is called a "spectrum".White light is a mix of different frequencies; with certain equipment, it is possible to separate it into its components. This separated version is called a "spectrum".
It's possible it has low energy and high frequency.
All kinds of waves, including light, have different possible wavelengths and frequencies. What particular wavelength a light wave might have depends on how it was made. Now if two light rays with different wavelengths enter your eye can you tell there were two different wavelengths? The answer is yes, and the way you tell is that your brain reacts differently to the two waves. The way it reacts differently is by giving the two waves "color". So its not really the waves that have different colors its the way your brain interprets the different wavelengths.
Yes, it is possible to have coherence between light sources emitting light of different wavelengths. Coherence refers to the phase relationship between two waves, and it is not dependent on the wavelengths of the light. However, achieving coherence between light sources of different wavelengths may require careful control and alignment of the sources.
The electromagnetic spectrum is the range of all possible frequencies of electromagnetic radiation, including radio waves, microwaves, infrared, visible light, ultraviolet, X-rays, and gamma rays. Each type of radiation has different properties and interacts with matter in different ways.
I don't think so. Coherence is defined for light of a single wavelength.
It is because the electrons surrounding an atom, say sodium, can only exist at certain energy levels. When a photon (packet of light energy) hits an orbiting electron it only gives energy to that electron if the energy of the photon is exactly enough to move the electron to a higher energy level, if not it doesn't effect the electron. As the energy of a photon is directly proportional to the it wavelength, only certain wavelengths affect an atom's electrons. When they do effect the electrons the photon is absorbed, giving the absorption spectrum. Emission spectra are the reverse of this process, when an electron cascades back down to its lowest possible energy state after this photon interaction it gives out certain frequencies of light. The energy of this light will be equal to the energy absorbed, so the photons emitted will be equal to the photons absorbed which is why emission spectra look like the inverse of an absorption spectrum.
When the energy is supplied to the atom of hydrogen it will be exited then its single electron will jump from its ground state to some higher energy level. Now,when it de exites from higher level to ground level by several jumps pectral lines of different wavelengths are emitted. That is why the spectrum of hydrogen contains many lines.
Type your answer here...The electromagnetic spectrum is the range of all possible frequencies of electromagnetic radiation.[1] The "electromagnetic spectrum" of an object is the characteristic distribution of electromagnetic radiation emitted or absorbed by that particular object.The electromagnetic spectrum extends from low frequencies used for modern radio to gamma radiation at the short-wavelength end, covering wavelengths from thousands of kilometers down to a fraction of the size of an atom. The long wavelength limit is the size of the universe itself, while it is thought that the short wavelength limit is in the vicinity of the Planck length, although in principle the spectrum is infinite and continuous.