We classify weak-scale extensions of the Standard Model which automatically preserve its accidental and approximate symmetry structure at the renormalizable level and which are hence invisible to low-energy indirect probes. By requiring the consistency of the effective field theory up to scales of Λ eff ≈ 10 15 GeV and after applying cosmological constraints, we arrive at a finite set of possibilities that we analyze in detail. One of the most striking signatures of this framework is the presence of new charged and/or colored states which can be efficiently produced in high-energy particle colliders and which are stable on the scale of detectors
We explore the possibility that lepton family numbers and baryon number are such good symmetries of ...
Weak scale supersymmetry is often said to be fine-tuned, especially if the matter content is minimal...
In this paper we discuss how LHC measurements of electroweak processes can be very sensitive to new ...
Abstract: We classify weak-scale extensions of the Standard Model which automatically preserve its a...
Abstract: We classify weak-scale extensions of the Standard Model which automatically preserve its a...
We classify weak-scale extensions of the Standard Model which automatically preserve its accidental ...
We discuss a class of weak-scale extensions of the Standard Model which is completely invisible to l...
The origin of electroweak symmetry breaking is about to be explored by the LHC, which has started ta...
AbstractMany extensions of the Standard Model (SM) predict new neutral vector bosons at energies acc...
For more than half a century, colliders have been in the forefront of studying the Standard Model (S...
We construct simple renormalizable extensions of the standard model where the leading baryon number ...
While the Higgs characterisation programme is well underway, direct signs for new physics beyond the...
AbstractWe present an extensive analysis of gauge-mediated supersymmetry breaking models with minima...
We present a novel framework within the conformal inverse seesaw scheme allowing large lepton number...
We present a novel framework within the conformal inverse seesaw scheme allowing large lepton number...
We explore the possibility that lepton family numbers and baryon number are such good symmetries of ...
Weak scale supersymmetry is often said to be fine-tuned, especially if the matter content is minimal...
In this paper we discuss how LHC measurements of electroweak processes can be very sensitive to new ...
Abstract: We classify weak-scale extensions of the Standard Model which automatically preserve its a...
Abstract: We classify weak-scale extensions of the Standard Model which automatically preserve its a...
We classify weak-scale extensions of the Standard Model which automatically preserve its accidental ...
We discuss a class of weak-scale extensions of the Standard Model which is completely invisible to l...
The origin of electroweak symmetry breaking is about to be explored by the LHC, which has started ta...
AbstractMany extensions of the Standard Model (SM) predict new neutral vector bosons at energies acc...
For more than half a century, colliders have been in the forefront of studying the Standard Model (S...
We construct simple renormalizable extensions of the standard model where the leading baryon number ...
While the Higgs characterisation programme is well underway, direct signs for new physics beyond the...
AbstractWe present an extensive analysis of gauge-mediated supersymmetry breaking models with minima...
We present a novel framework within the conformal inverse seesaw scheme allowing large lepton number...
We present a novel framework within the conformal inverse seesaw scheme allowing large lepton number...
We explore the possibility that lepton family numbers and baryon number are such good symmetries of ...
Weak scale supersymmetry is often said to be fine-tuned, especially if the matter content is minimal...
In this paper we discuss how LHC measurements of electroweak processes can be very sensitive to new ...