  The Standard Model of Particle Physics and its description of Nature have
been recently challenged by a series of precision measurements performed via
different accelerator machines. Statistically significant anomalies emerged in
the heavy meson physics sector, when measuring the muon magnetic momentum, and
very recently when deducing the mass of the W boson. Here we consider a
radiative extension of the Standard Model devised to be sufficiently versatile
to reconcile the various experimental results while further predicting the
existence of new bosons and fermions with a mass spectrum in the TeV energy
scale. The resulting spectrum is, therefore, within the energy reach of the
proton-proton collisions at the LHC experiments at CERN. The model investigated
here allows to interpolate between composite and elementary extensions of the
Standard Model with emphasis on a new modified Yukawa sector that is needed to
accommodate the anomalies. Focusing on the radiative regime of the model, we
introduce interesting search channels of immediate impact for the ATLAS and CMS
experimental programs such as the associate production of Standard Model
particles with either invisible or long-lived particles. We further show how to
adapt earlier SUSY-motivated searchers of new physics to constrain the spectrum
and couplings of the new scalars and fermions. Overall, the new physics
template simultaneously accounts for the bulk of the observed experimental
anomalies while suggesting a wide spectrum of experimental signatures relevant
for the current LHC experiments.
