This, of course, is totally contrary to the so-called Copenhagen Interpretation, which provides the normally accepted position.

(Bohr's axioms are simply: The theory should be probabilistic in the sense of the Copenhagen interpretation.)

This interpretation of quantum mechanics is known as the Copenhagen Interpretation and is dominant, with minor variations, in the quantum mechanics used today.

Niels Bohr, in his Copenhagen interpretation of quantum physics, maintains that on the contrary, only that which is observed, exists.

The mainstream answer to this contradiction is what is known as the Copenhagen interpretation of quantum mechanics.

More damning is the fact that predictions for experimental outcomes do not vary from the orthodox Copenhagen Interpretation.

The first view is currently popular and is related to the so-called Copenhagen interpretation of quantum mechanics.

Q: Copenhagen, the place of your birth, was the place where the famous “Copenhagen interpretation” of quantum physics was formulated and from where Tibetan Buddhism started to spread all over the West.

This metaphor from 1935 is an illustration of a few basic principles of what's known as the Copenhagen interpretation of quantum mechanics.

The standard interpretation of Quantum Mechanics is named the “Copenhagen interpretation” attributed to Niels Bohr’s influence.

The standard interpretation of Quantum Mechanics is named the “Copenhagen interpretation” attributed to Niels Bohr’s influence.

The contemporary alternative to the Copenhagen interpretation is the Many Worlds interpretation of quantum mechanics, which holds that reality actually is deterministic.

(Permalink) This Copenhagen interpretation makes me smile a bit: because there is no material explanation, there would be no explanation at all.

This interpretation of quantum mechanics is known as the Copenhagen Interpretation and is dominant, with minor variations, in the quantum mechanics used today.

Their broadly antirealist ‘Copenhagen interpretation’ – denying that the wavefunction represents the real physical state of a quantum system – quickly became the dominant way of thinking about quantum mechanics.