  We study the LHC constraints on an $R$-symmetric SUSY model, where the
neutrino masses are generated through higher dimensional operators involving
the pseudo-Dirac bino, named bi$\nu$o. We consider a particle spectrum where
the squarks are heavier than the lightest neutralino, which is a pure bi$\nu$o.
The bi$\nu$o is produced through squark decays and it subsequently decays to a
combination of jets and leptons, with or without missing energy, via its mixing
with the Standard Model neutrinos. We recast the most recent LHC searches for
jets+missing energy with $\sqrt{s}=13~$TeV and $\mathcal{L}=36~{\rm fb}^{-1}$
of data to determine the constraints on the squark and bi$\nu$o masses in this
model. We find that squarks as light as 350~GeV are allowed if the bi$\nu$o is
lighter than 150~GeV and squarks heavier than 950~GeV are allowed for any
bi$\nu$o mass. We also present forecasts for the LHC with $\sqrt{s}=13$~TeV and
$\mathcal{L}=300~{\rm fb}^{-1}$ and show that squarks up to 1150~GeV can be
probed.
