  Two-particle angular correlation is one of the most powerful tools to study
the mechanism of particle production in proton--proton (pp) collision systems
by relating the difference between the azimuthal angle ($\Delta\varphi$) and
the rapidity ($\Delta y$) of the particles from a pair. Hadronization processes
are influenced by various physical phenomena, such as resonance decay, Coulomb
interactions, laws of conservation of energy and momentum, and others, because
of the quark content of the particles involved. Therefore, each correlation
function is unique and shows a different dependence on transverse momentum
$p_{\mathrm{T}}$ and/or multiplicity. The angular correlation functions
reported by the ALICE Collaboration in pp collisions showed an anticorrelation
in short range of ($\Delta y,\Delta\varphi$) for baryon pairs which is not
predicted by any theoretical model.\\ \indent In this contribution, this
behavior will be investigated by studying identified charged hadrons (i.e.,
$\pi^{\pm}$, $\rm K^{\pm}$, and p($\bar{\rm p}$)) in the $\Delta
y,\Delta\varphi$ space in pp collisions at $\sqrt{s} = 13$ TeV recorded by
ALICE. In addition, to distinguish the various physical contributions,
collisions with different multiplicities are analyzed separately and diverse
normalization methods are applied.
