Nature is the inseparable mixing of the classical structures (the bare particles) and the quantum fields in which the quantum effects are turbulent i.e. there are rapid random changes in local densities of quantum field. The quantum time is going turbulently so the precise quantum methods should by free from such time. The internal structures of the classical bare particles/objects determine the possible interactions of them with quantum fields so we cannot neglect these structures. Such structures are neglected in the mainstream theories (there appear the sizeless points or flexible loops). In the string/M theory, a classical structure is defined but there is the fundamental wrong assumption that we can reduce all classical structures to the same closed string. Moreover, the fundamental closed strings have smaller size than it is assumed in the string/M theory and they are inflexible. To fit theoretical results to experimental data there appear approximations, mathematical tricks and free parameters. Such incoherent methods cannot lead to the lacking part of ultimate theory. Instead applying the incoherent methods we should seek interactions that lead directly to statistically stationary distributions of energy and/or matter i.e. we should directly look for eigenstates. To describe the inflation we should seek the metastable states (the regions of the expanding Cosmos with relatively slower changes in density) and stable states. Such methods are presented in this paper. The VEV and Planck values are calculated as well and we described the phenomena that stopped the inflation.