The information or knowledge we can get from a quantum state, depends on the interaction of this state with the measurement process itself. As we know, this involves an uncertainty in the amount of information and accuracy of this knowledge. Now we ask: is there an information content intrinsic and independent of the observer, in quantum reality? Our answer is a resounding, yes. More precisely, we show that this information is encoded on surfaces, and specifically in circular compactifications. That is, there is a holograph on surfaces. In this encoding of quantum information will call as the strong holographic principle. Due to the application of this principle, it will show as the Higgs vacuum value implies a subtle correction by entropic uncertainty. The connections of quantum information, to cosmology, are clearly shown when the values of the dark energy density approxeq = ln2;and matter density Omega_{m}= Omega_{c}+ Omega_{b}, approxeq = 1-ln2. It showed that the equation of the energy-momentum has five solutions by factoring by two components which appear in terms of mass and imaginary momentum. Far from being a mere mathematical artifice, we see that these states should exist, and that our interpretation of them is that every particle appears to be a mixture of two states, one of them unobservable, having an imaginary component. In other words: these involve imaginary states faster than the speed of light, without contradicting Special Relativity, as we shall see. Failure to observe Cherenkov radiation forces us to determine which are virtual states. These five states also appear to be related to the minimum number of microstates which generate the group E8. Finally: all these results lead us to postulate a particle candidate to the dark matter, of approximately 9,2 Gev.