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Can Quantum-Mechanical Description of Physical Reality Be Considered Complete? 


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The completeness of the quantum-mechanical description of physical reality is a topic of debate. Some argue that the description is complete within its scope, fulfilling all rational demands of completeness . However, others suggest that the description is not complete, based on the inability to simultaneously predict two non-commuting physical quantities . This leads to the conclusion that either the wave function's description of reality is incomplete or these quantities cannot have simultaneous reality . The problem arises when making predictions about a system based on measurements made on another previously interacting system . If the wave function's description is incomplete, then the inability to predict these quantities simultaneously is also false . Therefore, it can be argued that the quantum-mechanical description of physical reality is not complete .

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The paper concludes that the quantum-mechanical description of physical reality is not complete.
The paper concludes that the quantum-mechanical description of physical reality given by a wave function is not complete.
The paper discusses the ambiguity in the "criterion of physical reality" when applied to quantum phenomena. It explains the viewpoint of "complementarity" which suggests that the quantum-mechanical description of physical phenomena is complete within its scope.
The paper argues that the quantum-mechanical description of physical phenomena is complete within its scope, fulfilling all rational demands of completeness.
The paper discusses the ambiguity in the "criterion of physical reality" when applied to quantum phenomena. It explains the viewpoint of "complementarity" which suggests that the quantum-mechanical description of physical phenomena is complete within its scope.

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