  We treat the Standard Model as the low-energy limit of an effective field
theory that incorporates higher-dimensional operators to capture the effects of
decoupled new physics. We consider the constraints imposed on the coefficients
of dimension-6 operators by electroweak precision tests (EWPTs), applying a
framework for the effects of dimension-6 operators on electroweak precision
tests that is more general than the standard $S,T$ formalism, and use
measurements of Higgs couplings and the kinematics of associated Higgs
production at the Tevatron and LHC, as well as triple-gauge couplings at the
LHC. We highlight the complementarity between EWPTs, Tevatron and LHC
measurements in obtaining model-independent limits on the effective Standard
Model after LHC Run~1. We illustrate the combined constraints with the example
of the two-Higgs doublet model.
