The Duality of Time Theory

We can give a logical explanation of the uncertainty principle, which was first introduced in 1927, and it states that the more precisely the position of some particle is determined, the less precisely its momentum can be known, and vice versa. This is normally expressed as an inequality relating the standard deviations of position and momentum. This principle had been verified experimentally even on the macroscopic scale, and it can be mathematically explained according to wave mechanics and matrix mechanics, but we want here to explain the physical reasons that cause this uncertainty limitation, apart from the mathematical formulation.

As we explained above: a particle or any object with apparent velocity, or momentum, is in fact momentarily fluctuating between the two states of existence and nonexistence, so its velocity is the time average of its dual state velocity that can be either zero or the speed of light. If we suppose that the object is composed ofindividual points, only one of these points will be existing, at the real instance of measurement, so it will be moving at the speed of light, while all the other points will be at zero, at this particular time. According to Special Relativity anything moving at the speed of light its position is undefined, due to length contraction, i.e. it virtually exists in all places as far as it is undetected, but after detection its position will be fixed because it instantly move into the particle state.

Therefore, in an object composed ofindividual points, the position of one of them will be completely uncertain, while the rest are already determined, because they are now in the particle state. When the number of pointsis very large, as it is the case with large objects and heavy particles, the uncertainty will be very small. But for small particles, such as the electron, the uncertainty could be considerably large, especially when the particle is moving at hight speeds, which means that on average most of its individual points are at the speed of light.