  Yield ratios of identified hadrons observed in high multiplicity p+p and p+Pb
collisions at LHC show remarkable similarity with those in Pb+Pb collisions,
indicating some important and universal underlying dynamics in hadron
production for different quark gluon final states. We use the quark combination
model to explain the data of yield ratios in these three collision systems. The
observed $p/\pi$ and $\Lambda/K_s^0$ can be reproduced simultaneously by quark
combination, and these two ratios reflect the rate of baryon production at
hadronization which is the same in light sector and strange sector and is
roughly constant in p+p, p+Pb and Pb+Pb collision systems over three orders of
magnitude in charged particle multiplicity.The data of $K_s^0/\pi$,
$\Lambda/\pi$, $\Xi/\pi$ and $\Omega/\pi$ show a hierarchy behavior relating to
the strangeness content, and are naturally explained by quark combination both
in the saturate stage at high multiplicity and in the increase stage at
moderate multiplicity. Our results suggest that the dynamical characteristic of
quark combination is necessary in describing the production of hadrons in small
systems created in p+p and p+Pb collisions.
