  Current analyses of the LHC data put stringent bounds on strongly interacting
supersymmetric particles, restricting the masses of squarks and gluinos to be
above the TeV scale. However, the supersymmetric electroweak sector is poorly
constrained. In this article we explore the consistency of possible LHC missing
energy signals with the broader phenomenological structure of the electroweak
sector in low energy supersymmetry models. As an example, we focus on the newly
developed Recursive Jigsaw Reconstruction analysis by ATLAS, which reports
interesting event excesses in channels containing di-lepton and tri-lepton
final states plus missing energy. We show that it is not difficult to obtain
compatibility of these LHC data with the observed dark matter relic density,
the bounds from dark matter direct detection experiments, and the measured
anomalous magnetic moment of the muon. We provide analytical expressions which
can be used to understand the range of gaugino masses, the value of the
Higgsino mass parameter, the heavy Higgs spectrum, the ratio of the Higgs
vacuum expectation values $\tan \beta$, and the slepton spectrum obtained in
our numerical analysis of these observables.
