Cromodinámica Cuántica Relativista

It is known ad nauseam that quantum chromodynamics studies the strong interaction, that is, the dynamics of the relationship between baryons and mesons respectively, regarding the existence of hadrons. For the quantum theory of relativistic or curved fields formulated by this author, there are premises of quantum chromodynamics that mesh with its general guidelines, more specifically the existence of a supermassive particle called quark-top, whose mass reaches the measurement of 151 and 197 GeV/c² which makes it the heaviest particle within the standard model. It is certainly suitable for the validation of the mathematical calculations developed throughout previous articles, in relation to the existence of a supermassive particle. Certainly, the top quark qualifies as a supermassive particle because of its extremely dense mass. The same would apply to a supermassive antiparticle, which is the case of antihyperhydrogen-4. In short, quantum chromodynamics offers an experimentally appropriate scenario to apply the theorized and underlying postulates to relativistic or curved quantum space-time.