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yoda66
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I know there are a lot of interpretation's but what is the one that mostly top's the chart's?
yoda66 said:my uncle told me that some interpretation's have parallel universe's,is this true?
jms5631 said:Family? I suppose I never looked at it that way. Are you grouping together other interpretations that take the Schrodinger equation at face value without additional postualates such as Consistent Histories
Excellent answer! :tongue2:vanesch said:I guess it is the "standard" Copenhagen/Shut Up And Calculate/Statistical fuzzy mix interpretation which works well until you start thinking about it :tongue: (maybe this is also part of complementarity :tongue2:)
In my experience this is the most popular interpretation among working physicists; despite having having worked on "quantum phenomena" for a number of years now (9 to be exact)I don't think I have ever met anyone who was serionsly worried about the interpretation of what they were doing.Demystifier said:Excellent answer! :tongue2:
b) shut up and calculate
vanesch said:It has the advantage of not cluttering your mind with self-contradictory or weird pictures, allows you to concentrate on the calculations and is maybe the best view if you take quantum theory as just a good calculational tool for finding out what will happen in an experiment, but not as a way to "describe what happens for real".
Quantum mechanics is a branch of physics that studies the behavior of matter and energy at a very small scale, such as atoms and subatomic particles.
The most accepted interpretation of quantum mechanics is the Copenhagen interpretation, which was developed by Niels Bohr and Werner Heisenberg in the 1920s. It states that particles do not have definite properties until they are observed.
Aside from the Copenhagen interpretation, there are other interpretations such as the Many-Worlds interpretation, which posits that there are multiple parallel universes, and the Pilot Wave interpretation, which suggests that particles have definite properties at all times.
The measurement problem in quantum mechanics refers to the challenge of explaining how a particle's wave-like behavior can collapse into a specific location or state when it is observed.
Quantum mechanics has led to many technological advancements such as transistors, lasers, and computers. It also plays a crucial role in fields like chemistry, materials science, and medicine.