Investigation of the production of strange particles in high-energy collisions is one of the ways to study quark-gluon plasma (QGP). One of the first suggested signatures of QGP was the phenomenon of strangeness enhancement. It was long considered that it is only possible to have QGP in heavy ion collisions, and that the proton-proton system is too small to produce QGP. After strangeness enhancement was observed in heavy ion collisions, with an increase in collision energy at the LHC, it was also observed in proton-proton collisions, in which we didn’t expect to find quark-gluon plasma, together with some of the other QGP signatures. With higher LHC energies, the question arises: will the production of strangeness continue with a growing trend, as it does for other systems, or will saturation occur for smaller systems, as it does in lead-lead collisions? This study analyses data collected by the ALICE detector at the LHC from 2016-2018 during 13 TeV proton-proton collisions. The analysis investigates the dependence of Xi and Omega hyperon yields on their transverse impulse, as well as on the multiplicity of collisions. The main analysis is done on highest multiplicity events. This fills a gap in multiplicity in which there are currently few results available for collisions of protons. The data used is comparable to data from proton-lead and peripheral lead-lead collisions and the aim is to see if the results agree, or if there is a saturation in strangeness production in pp collisions. As a consequence, certain models that try to explain strangeness enhancement would be either confirmed or disproved. The results show great agreement with results from collisions of other systems, namely lead-lead and proton-lead, and different collision energies. This confirms that strangeness enhancement is present in high multiplicity proton-proton collisions. The number of produced strange particles in the final state of the collision depends on the final multiplicity of the collision, and not on the energy or the type of particles colliding.