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The Heisenberg Uncertainty Principle tells us that while it is possible to measure the position and velocity with reasonable accuracy, we cannot measure both an atom's position and velocity at the same time. The reason for this is simple. For instance, to find the position of an atom, we must shine a beam of light which come in small packets, or quanta, also known as photons. The individual photons of each wavelength have an energy inversely related to their wavelength. The greater the resolution we want, the smaller the wavelength of light we must use. But the smaller the wavelength, the larger the energy of the packets. If we bombard an atom with a high-energy photon in order to observe it, we may ascertain exactly where the atom was when the photon hit it, but the observation process itself, that is, hitting the atom with the photon will clearly transfer significant energy to the atom, thus changing its speed and direction of motion by some amount.
That is the case with our current 'scanning systems'.
1) But what if we invented new scanning systems which wouldn't cause the same problem, that is, without probing particles with other particles?
2) Also, if future new physics are introduced, would the Heisenberg Uncertainty Principle be broken, disproved, or modified?
Whitestar
That is the case with our current 'scanning systems'.
1) But what if we invented new scanning systems which wouldn't cause the same problem, that is, without probing particles with other particles?
2) Also, if future new physics are introduced, would the Heisenberg Uncertainty Principle be broken, disproved, or modified?
Whitestar