Arguments that hybrid classical-quantum coupling entails uncertainty-relation violations inherit the same dependence on idealized classical measurement precision that actual gravitational interactions cannot deliver.

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gravitational interactions(as used in physics): The forces and effects that occur when objects with mass pull on each other, like Earth's gravity pulling you down.
hybrid classical-quantum coupling(as used in physics and philosophy of science): A theoretical situation where classical physics (the everyday physics of large objects) and quantum physics (the physics of tiny particles) interact with each other.
idealized classical measurement precision(as used in philosophy of physics): A theoretical assumption that measurements in classical physics can be perfectly accurate with no errors—something that doesn't actually happen in the real world.
uncertainty relation(as used in quantum mechanics): Heisenberg's principle stating that you cannot simultaneously know both a particle's exact position and exact momentum—the more precisely you measure one, the less you can know about the other.
uncertainty-relation violations(as used in quantum mechanics philosophy): Cases where you could theoretically measure both a particle's position and momentum with perfect precision at the same time, which would contradict what quantum mechanics says should be possible.

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