Every electron has a predetermined variable (a fixed quantum state). However, with the magnetic polarization applied in the measurement process, certain amount of energy can be added to each electron subject to the strength of the measurement (the angle of magnetic polarization). Therefore, for those electrons which have energy above the threshold energy, their spins can be flipped to the opposite directions. As a result, the possibility to find opposite spins in the transformation process is determined by the angle of the polarization which is conflict to "Superposition" in quantum theory where both spin up and spin down coexist in any single electron at all times. As to the entangled electrons (having same energy state but in opposite spin directions), because of the same threshold energy applies to both entangled electrons under the same measurement process (same angle of magnetic polarization), therefore, they will both either flip or stay un-flip together such that their entanglement is always maintained. In conclusion, "Superposition" is false meaning "God doesn't play dies". Also there is no talking between entangled electrons no matter how far the distance and how fast the communication are, meaning "No spooky behavior".
Bell’s Inequality is a mathematical theory based on Set Theory. It is true only if all elements in the sample space are equal; stay unchanged no matter of distribution. However, in photon polarization and electron entanglement transformation processes, subject to the polarization strength (the angle of polarization), photon and electron quantum states (Hidden Variables) can be changed by adding energy to the electrons or reducing energy from the photons during the transformation processes. In other words, all elements in the sample space are no longer the same elements. Therefore, Bell’s Inequality cannot be used to prove the existence of Hidden Variables. In fact, Hidden Variables exist simply to obey Locality and Realism. Einstein’s EPR Paradox and Hidden Variables are correct all time long.