B-resonance Algorithm using Rare Decays

The Standard Model (SM) of particle physics provides a cogent, yet incomplete, description of matter and its fundamental

interactions. Many theories aim to describe particles and forces beyond the SM of particle physics, but after ten years of data taking at

the Large Hadron Collider (LHC) and hundreds of experimental measurements, only one deviation from the predictions of the SM has

been observed .The Standard Model (SM) of particle physics provides a cogent, yet incomplete, description of matter and its

fundamental interactions. Many theories aim to describe particles and forces beyond the SM of particle physics, but after ten years of

data taking at the Large Hadron Collider and hundreds of experimental measurements, only one deviation from the predictions of the

SM has been observed in a series of semi-leptonic decays of B-mesons (B anomalies). It is undeniable though that the third generation

of fermion families have a special role in the SM and beyond and their study represents the pathway towards accessing new particles

and forces. Taking into account the current exploitation of LHC data and the constraints set to new particles and forces in recent

years, it is time to devote greater scientific focus to the search for new light particles that specially couple to third generation quarks.

These particles might be within reach of the LHC, but haven’t been discovered yet due to experimental limitations (triggers). BARD is

a new experimental technique that overcomes the limitations of light particle searches and provides a new way of performing data

analysis searches for these particles. BARD will achieve this goal by advancing high-momentum resonance search methods using

tools specific to the low-momentum B-physics field, in order to increase the available dataset and sensitivity for di-b-jet resonance

particles. BARD’s innovation, exploiting the full LHC Run-3 data-taking, will provide a concrete chance at

discovering these new particles.