Mentz114 said:The highest energy that has been observed was at the LHC and the energy is something like that of a speeding truck.
A Google search getsVanadium 50 said:Where did you get that? I find it hard to believe, as the total collision energy is only 20 ergs. (2 microjoules)
Two heavy nuclei smashing together at 0.9 c ?13 teraelectronvolts (TeV)—the highest energy ever achieved in a laboratory.
dsaun777 said:Given that electromagnetic waves transport energy via photons, what is the lowest and highest possible frequency of a photon and what physical phenomena do these relate to? It is clear that the larger the wavelength the lower the energy for a photon. so what are the limits of the wavelength?
Natural photon frequencies refer to the range of frequencies at which photons, the fundamental particles of light, are emitted or absorbed by atoms and molecules in nature. These frequencies are determined by the energy levels of these particles and can range from extremely low frequencies, such as radio waves, to extremely high frequencies, such as gamma rays.
Natural photon frequencies are those that occur in nature without any human intervention or manipulation. On the other hand, artificial photon frequencies are those that are generated by humans, such as in electronic devices or artificial light sources. While both types of frequencies follow the same laws of physics, natural photon frequencies are typically lower and cover a wider range than artificial ones.
The range of natural photon frequencies is extremely wide, covering a spectrum from less than 1 Hz (extremely low frequency) to more than 10^24 Hz (extremely high frequency). This range includes all types of electromagnetic radiation, from radio waves to gamma rays, as well as visible light, which falls in the middle of the spectrum.
Natural photon frequencies are measured using a unit called hertz (Hz), which represents the number of cycles per second of a wave. For example, a frequency of 1 Hz means that one cycle of the wave occurs every second. Scientists use specialized equipment, such as spectrometers, to measure the frequency of photons emitted or absorbed by atoms and molecules.
Understanding the range of natural photon frequencies is crucial for many fields of science, including astronomy, chemistry, and biology. It allows us to study and analyze natural phenomena, such as the behavior of atoms and molecules, the composition of stars and galaxies, and the effects of electromagnetic radiation on living organisms. Additionally, this knowledge can also lead to practical applications, such as in the development of new technologies and medical treatments.