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In this paper I show that the Einstein-Podolsky-Rosen-Bohm Gedankenexperiment and so-called entanglement of photons have a simple explanation within the framework of classical electrodynamics if we take into account the discrete (atomic) structure of the detectors and a specific nature of the light-atom interaction. In this case we do not find such...
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Citations
... One of the most mysterious of quantum mechanics is the entanglement phenomenon, which shows strong correlation of the behavior of quantum objects, even when they are separated by a large distance [1,2]. According to quantum mechanics, a state of each such an object cannot be described independently, instead a quantum state must be described for the system as a whole [3]. By other words entangled state cannot be factorized into a product of two states associated to each object. ...
... As the pump beam interacts with these nonlinear crystals, single photon split into entangled "signal" and "idler" photons with wavelengths longer than the pump [4]. The entanglement phenomenon was considered for the first time by A. Einstein, B. Podolsky, and N. Rosen and was developed further by D. Bohm who described what came to be known as the EPRB Gedanken experiment and EPRB paradox [3]. ...
... So that quantum mechanical calculations suggest that although each individual measurement gives random results, these random results are correlated. This means that immediately after the first measurement, photon takes the polarization |a〉 , the distant photon which has not yet interacted with any polarizer has also been projected into the state |a〉with a well define polarization, parallel to the one found for photon [3]. ...
