The following passages discuss theoretical frameworks in quantum physics.
Passage A
Proponents of ontological models in quantum mechanics argue that the quantum state, or wave function, must represent a real, objective physical property of the system being studied. If the wave function is merely a mathematical tool for predicting measurement outcomes, as orthodox interpretations suggest, quantum physics ceases to be a comprehensive theory about the physical world and becomes merely a calculus of probabilities. The phenomenon of quantum interference, where particles behave as waves passing through multiple slits simultaneously, strongly implies that the wave function maps onto a physical reality. It is the interaction of a physical wave, not merely a representation of our ignorance regarding the particle's trajectory, that causes the interference pattern. Thus, any complete physical theory must treat the quantum state as an ontological entity.
Passage B
The informational interpretation of quantum mechanics views the wave function not as an element of physical reality, but as a representation of an observer's subjective state of knowledge. From this perspective, the wave function is strictly analogous to a probability distribution in classical statistical mechanics. When a measurement is made and the wave function purportedly "collapses," no physical change occurs in the objective world; rather, the observer's information has been updated. Treating the wave function as a real, physical entity inevitably leads to severe conceptual paradoxes, such as the instantaneous action at a distance seemingly required by quantum entanglement. By recognizing that the quantum state merely encodes what an observer can logically expect to measure, we dissolve these paradoxes entirely.
Based on the arguments presented, evaluate the following statement:
The author of Passage B would most likely assert that the "orthodox interpretations" criticized in Passage A are conceptually flawed because they mistakenly attribute objective physical reality to the quantum state.
Answer: Answer