The discussion revolves around the mechanisms by which electromagnetic radiation is produced when charged particles are accelerated. It explores theoretical frameworks, experimental evidence, and implications in both classical and quantum contexts.
Participants express differing views on the mechanisms of radiation production and the implications of classical versus quantum theories. There is no consensus on the explanations provided, and the discussion remains unresolved regarding the specifics of how acceleration leads to radiation.
Participants highlight limitations in classical theories when applied to quantum contexts, such as the assumptions made in Bohr's model and the implications of energy quantization. There are also references to ongoing experiments that may provide further insights into these phenomena.
This discussion may be of interest to those studying electromagnetism, quantum mechanics, or the behavior of charged particles in various fields of physics and engineering.
Since Bohr's bold step in assuming that the energy levels of atoms are quantised, a new theory call 'Quantum Mechanics' was developed which is able to predict correctly the energy levels of the hydrogen atom. In this theory the actual movement ( if any ) of the electron is not specified but a probability distribution is given.Similar conversation also applies to a Bhor Atom. As the electron goes around the nucleus its energy would continue to decrease and collide with the nucleus. But I think I have an answer for this. Bhor's Theory also suggessts that energy of an electron is quantised. So it should not have energy less than -13.6eV. That prevents the electron from colliding with the nucleus. Am I right?