In Bohm mechanics, 'collapse' refers to the idea that the position of a particle becomes definite when it is measured. This occurs due to the interaction between the particle and its surrounding quantum field, which causes the particle's wave function to collapse into a single state.
The quantum potential, also known as the Bohm potential, is a key component in the 'collapse' process in Bohm mechanics. It is responsible for guiding the trajectory of the particle, and ultimately determining its position when measured.
Yes, 'collapse' can be observed in experiments. One example is the double-slit experiment, where the wave-like behavior of particles can be seen as they pass through the slits, but their position becomes definite when they are measured at the screen.
In Bohm mechanics, 'collapse' is seen as a real physical process, rather than a collapse of the wave function due to measurement. This is in contrast to the Copenhagen interpretation, where 'collapse' is seen as a collapse of the wave function due to measurement.
There is ongoing debate and discussion among physicists about the nature of 'collapse' in Bohm mechanics. Some argue that it is a fundamental aspect of reality, while others view it as a mathematical construct within the theory. Ultimately, the true nature of 'collapse' in Bohm mechanics is still a topic of exploration and research.