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afcsimoes
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The wavelength is inversely proportional to the foton energy. So, the limit can be stated by the mass of the full universe.
But how much near that limit can the light be?
But how much near that limit can the light be?
But that energy is frame dependent. We can make the energy arbitrarily large and the wavelength arbitrarily small just by choosing a frame in which the light is blue-shifted by an arbitrarily large amount.afcsimoes said:The wavelength is inversely proportional to the photon energy.
Yes. I forgot the frames question.Nugatory said:But that energy is frame dependent. We can make the energy arbitrarily large and the wavelength arbitrarily small just by choosing a frame in which the light is blue-shifted by an arbitrarily large amount.
Any interaction that transfers energy to the electromagnetic field is going to create photons. In principle we can produce arbitrarily energetic interactions by colliding arbitrarily energetic particles. We can describe these interactions using any frame we choose.afcsimoes said:I realize now that i was thinking of the observer at the same frame of the local of foton's production.
afcsimoes said:When our universe has came into existence the only "thing" was energy. As radiation, i think.
Nugatory said:I can't justify English spelling, all I can do is apologize for it.
afcsimoes said:the generic definition of field is that it is a region of space where we can assign a value to each and any point.
afcsimoes said:And so on (for other kind of fields).
afcsimoes said:What kind of "thing" generates the inflation field?
The minimum wavelength for electromagnetic radiation is approximately 10^-14 meters, also known as the Planck length. This is the smallest possible length that can exist according to quantum mechanics.
No, there is no maximum wavelength for electromagnetic radiation. The electromagnetic spectrum is continuous, meaning that there is no limit to how long a wavelength can be.
No, wavelengths cannot be negative values. Wavelength is a measure of distance and cannot be negative in physical terms.
The wavelength of electromagnetic radiation determines its frequency, energy, and behavior. Shorter wavelengths have higher frequencies and carry more energy, while longer wavelengths have lower frequencies and carry less energy. The behavior of electromagnetic radiation is also affected by its wavelength, as different wavelengths interact with matter in different ways.
The minimum wavelength for electromagnetic radiation is important because it represents the smallest scale at which the laws of physics can be applied. It also plays a crucial role in understanding the fundamental nature of the universe, particularly in the study of quantum mechanics and the behavior of particles at extremely small scales.