In 1999 I published the book „An Essay on a Finite Ontology”, which contains the firsts articles of a ampler work, "The Finite Universe”. In this book contains following chapters:

    In these articles I made the principial presumption of a finite Universe (not infinite!). I considerated as fundamental gauges the meter, the kilogram and the Newton (dynamic gauge), and not the time (static gauge). As primary elements I considered the v type qquantas, which are inert at a temperature of T = 0⁰K and become mobile when their absolute temperature T > 0⁰K (existant) - we'll call them w type qquantas.

    We shall denote the set of qquants of type v – {v}, and the set of qquants of type w with {w}. We get the following axioms:

Axiom I.1: {v} È {w} º U (the finite Universe);

Axiom I.2: {v} Ç {w} º Æ (inexistent set);

Axiom II:   {w} / {v}  = k (constant) {w} < {v}.

    According to the properties of w type qquantas we can classify them following a certain criteria. Because {w} is finite, their classification will be made also according to the finitude of the criteria.

    We'll denote the w type classes as {c_i}, where i represents the ordinal number of the classes. Because {w} type classes are finite, there will be a final class {c_M} where M is identical to i.   

    Let's take two finite rows {c_i} and {c_i,   }. If there are two incompatible, contrar, hostile elements in the two sets c_p and c_p,   , how will the two sets {c_i} and {c_i,   } behave when reunited? 

    The PhF principle - Panheautofteirizsis comes from παν - everything; ξαντο - reflexive; φυιριρ - to neutralize, to destroy. If we'll denote F₁ the row {c_i} except the incompatible element c_p and F₂ the row {c_i,   } except the incompatible element c_p,   and Δ  the difference between them {c_i} and {c_i,   }, then:   

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