  In this work we have analyzed several features of symmetric nuclear matter
(SNM) at finite temperature described by different zero- and finite-range
nonrelativistic families of models, namely, Skyrme, Gogny, Momentum-dependent
interaction (MDI), Michigan three-range Yukawa (M3Y) and Simple Effective
Interaction (SEI). We have calculated the critical parameters (CP) associated
to the liquid-gas phase coexistence for nuclear matter from these
parametrizations and show that they are in agreement with their experimental
and theoretical values obtained in the literature. Our study also points out to
a strong evidence of universality presented by the hadronic models, namely,
model independence in the gaseous phase and distinguishability among different
interactions in the liquid phase. We have performed a correlation study among
different CP and SNM properties. Such studies involving different finite range
interactions are scarce in literature. The analyzed models show an overall
increasing trend of the critical temperature as a function of critical
pressure.
