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Vibin Narayanan
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If a quantum sistem can vibrate only in discreate energies, can there exist photons of all energies (All frequencies in the real number line)?
Vibin Narayanan said:If a quantum sistem can vibrate only in discreate energies, can there exist photons of all energies (All frequencies in the real number line)?
Vibin Narayanan said:If a quantum sistem can vibrate only in discreate energies, can there exist photons of all energies (All frequencies in the real number line)?
Sure, that's like asking how can the real line be made of discrete points.Vibin Narayanan said:If a quantum sistem can vibrate only in discreate energies, can there exist photons of all energies (All frequencies in the real number line)?
The harder you shake it, the hotter it is. The hotter it is, the more energetic the emitted electromagnetic radiation, and the higher the frequency.Leonardo Machado said:Is there a maximum number to the wave frequency in this system?
It's a bit perplexing that you're asking this question in an I-level thread, as you should have seen the answer around the end of your first undergraduate year when you studied introductory E&M... And if you haven't already studied introductory E&M you would be marking your threads "B" instead of "I".Vibin Narayanan said:I'm aware that accelerating electric charges produce EM waves. But, how is this acceleration linked with frequency of wave produced?
Vibin Narayanan said:If a quantum sistem can vibrate only in discreate energies
Yes, photons of all energies exist. Photons are the fundamental particles of light and they can exist at any energy level, from low energy radio waves to high energy gamma rays.
No, photons cannot have negative energy. According to the laws of physics, energy cannot be negative. Photons always have positive energy, even if they have a very low energy level.
Photons of different energies behave differently based on their frequency. Higher energy photons have shorter wavelengths and can penetrate through materials more easily, while lower energy photons have longer wavelengths and are more easily absorbed or scattered by materials.
Yes, photons of all energies are equally important. Each energy level of photons has its own unique properties and plays a crucial role in various natural phenomena, such as photosynthesis, vision, and communication through electromagnetic waves.
Yes, photons of different energies can interact with each other. This interaction is known as photon-photon scattering and is a rare phenomenon that occurs under very high energy conditions, such as in particle accelerators.