Data of particle physics were studied for its fitness within a self-selection principle. A plot of mesons and baryons, according to their energy and half-life, reveals an overall tendency of deconfinement and reconfinement of energy, leading to hadrons dominance. The decay of the particles contributes to increment enthalpy along primordial chronology. The strong force opposes to the separation of the constitutive quarks of pions through self-multiplication, incrementing the mass of the system. Sequencing and integrating reactions paths of hadrons and antihadrons, allow for the disappearance of antiprotons and antineutrons, yielding a residue of 2 neutrons. Also, the process emits gamma photons, electrons, positrons, neutrinos, antineutrinos, kaones and piones. The energy of decay and pair-annihilation could be confined in hadrons, in order to prevent a Universe immersed into residual gamma radiation. The generation of the resting mass of hadrons, involves a 99% of releasable energy to form gluons, summing-up to a 1% mass of quarks. Also, an oscillation neutron-proton and antineutron-antiproton cycle captures primordial radiation. Each one absorbs 1 gamma photon, 1 electron and 1 positron, and generates 2 neutrinos and 2 antineutrinos that leak-out of the system. Half-life is a statistical defined parameter, which allows synchronizing events globally disconnected, without introducing an ad-hoc velocity greater than c, to allow global connectivity. The phases of particles decay and reconfinement, inputs a statistical convergence allowing parameterization of an evolutionary selection processes.