  We argue that quantum nonlocality of entangled states is not an actual
phenomenon. It appears in quantum mechanics as a consequence of the
inconsistency of its superposition principle with the corpuscular properties of
a quantum particle. In the existing form, this principle does not distinguish
between macroscopically distinct states of a particle and their superpositions:
it implies introducing observables for a particle, even if it is in an
entangled state. However, a particle cannot take part simultaneously in two or
more alternative macroscopically distinct sub-processes. Thus, calculating the
expectation values of the one-particle's observables, for entangled states, is
physically meaningless: Born's formula is not applicable to such states. The
same concerns the entangled states of compound quantum systems. In the {\it
existing} quantum mechanics, introducing Bell's inequalities is fully legal.
However, these inequalities imply averaging over an entangled state, and,
hence, they have no basis for their clear physical interpretation. Experiments
to confirm the violation of Bell's inequalities do not prove the existence of
nonlocality in microcosm. They confirm only that correlations introduced in the
existing theory of entangled states have no physical sense, for they contradict
special relativity.
