  In this paper, we present results based on a combination of four inclusive
topology searches for supersymmetry (SUSY) from the CMS experiment, and use
this to determine universal mass limits on gluino and third-generation squarks
in the context of Natural-like SUSY spectra. The class of Natural-like SUSY
spectra considered follows the typical Natural SUSY model made up of a gluino,
third-generation squarks, and higgsino sparticles, but is extended to more
complex spectra containing sleptons. We show that the limits obtained from the
combination of inclusive topology searches are far more stable than those from
individual searches, with respect to the assumed underlying complexity of the
spectra. Hence, these limits can be considered as universal mass limits on
gluino and third-generation squarks, defined in the context of this broad class
of Natural-like SUSY spectra. Furthermore, we present our results using a
simple colour scheme that allows a straightforward interpretation of any
Natural-like SUSY spectrum with our limits.
  Complementing the final results of the 2011 searches based on 5
$\textrm{fb}^{-1}$ of integrated luminosity, with the first published results
from the 2012 searches using approximately 11 $\textrm{fb}^{-1}$, we find that
gluinos with a mass of $m_{\tilde{g}}\approx$ 1050 GeV and third-generation top
and bottom squarks with masses of $m_{\tilde{3G}}\approx$ 575 GeV are excluded
for low masses of the lightest SUSY particle (LSP). We also establish a
prediction of how these limits might evolve when the full 2012 data set is
analysed, with both the CMS and ATLAS experiments combined. The importance of
combining relevant inclusive topology searches, in order to make the most
universal interpretations possible, is a general recommendation for future
experimental searches at the LHC.
