Spontaneous breaking of spatial symmetry as a novel paradigm for theoretical physics

E=mc^2 as a wave equation describes a light speed propagation of the state of symmetry breaking in the space. Time and energy can be concretely defined as measurements of the degree of spatial asymmetry. All the hierarchy problems and the origin of mass and/or mean lifetime of electron and nucleons can be addressed in one shot by assuming the probability of the spontaneous symmetry breaking to be 1/(2.04x10^21). The entity of quarks and hadrons and the mechanism of quark confinement and asymptotic freedom are revealed by calculations supposing that hadrons are rigid body type particles while leptons are mass point type particles, and that in high energy collision the former may either have one or two out of three spatial dimensions collapse into the latter type, or enlarge the spatial expanse of one dimension in a discrete manner. The quantum entanglement can be explained by combining the superluminal phase velocity of de Broglie wave and the relativity of simultaneity, such that both locality and realism remain intact. An updated theory of gravity is proposed, which is not only compatible with quantum mechanics but also has convincingly denied the existence of dark energy and revealed that dark matter is actually the energy that mediates the interactions between Fermions. All the four fundamental interactions saw a super unification as four different aspects of spontaneous symmetry breaking in the space as a field composed of binary states. Eventually, an astonishing scenario for the birth and evolution of the universe is proposed. Our universe began from two symmetry breakings which had simultaneously occurred 23.1 billion years ago. The probability of spontaneous symmetry breaking decreases, and accordingly do the masses of all elementary particles, as the cosmological event horizon expands at the speed of light