  The "$\mu$ from $\nu$" supersymmetric standard model ($\mu\nu$SSM) can
accommodate the newly discovered Higgs-like scalar boson with a mass around 125
GeV. This model provides a solution to the $\mu$-problem and simultaneously
reproduces correct neutrino physics by the simple use of right-handed neutrino
superfields. These new superfields together with the introduced $R$-parity
violation can produce novel and characteristic signatures of the $\mu\nu$SSM at
the LHC. We explore the signatures produced through two-body Higgs decays into
the new states, provided that these states lie below in the mass spectrum. For
example, a pair produced light neutralinos depending on the associated decay
length can give rise to displaced multi-leptons/taus/jets/photons with
small/moderate missing transverse energy. In the same spirit, a Higgs-like
scalar decaying to a pair of scalars/pseudoscalars can produce final states
with prompt multi-leptons/taus/jets/photons.
