  The two-particle angular correlations in the $\Delta$y,$\Delta\varphi$ space
provide valuable insights into the properties of hadronization mechanisms and
quark-gluon plasma properties. The correlation functions are influenced by
several physical sources, including mini-jet correlations, Bose-Einstein
quantum statistics, resonance decays, conservation of energy and momentum, and
other factors. Each correlation source has unique properties, and therefore
each correlation function has a distinct form depending on transverse momentum
and/or multiplicity. Previous results from angular correlation analysis of pp
collisions at the LHC energies indicate an anticorrelation for pairs of baryons
of the same sign in $\Delta\eta,\Delta\varphi$ space. This contradicts the
predictions of Monte Carlo models, such as PYTHIA8 and EPOS. This study aims to
investigate this behavior by exploring the correlation functions of different
charge combinations of the detected particles (specifically, $\rm{\pi^{\pm}}$,
$\rm{K^{\pm}}$, and $\rm{p}$$\bar{\rm{p}}$) and multiplicity classes in the
$\Delta$y$,\Delta\varphi$ space for pp and p--Pb collisions at LHC energies. In
addition, the study includes a comparison of the results obtained from both
collision systems.
