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SUMMARY:Quantum algorithm for the classification of Supersymmetric top qua
 rk events
DTSTART:20211215T163000Z
DTEND:20211215T180000Z
DTSTAMP:20260704T035214Z
UID:7a74c466-f3a1-48b9-8d29-187d5f7f8465
SEQUENCE:1
CREATED:20211213T143602Z
DESCRIPTION: The search for supersymmetric particles is one of the major g
 oals in the next high luminosity phase of the Large Hadron Collider. Super
 symmmetric top (stop) searches play a very important role in this respect\
 , but the unprecedented collision rate that will be attained at this phase
  poses new challenges for the separation between any new signal and the St
 andard Model background. While classical multivariate techniques might be 
 insufficient in this new environment\, the massive parallelism provided by
  quantum computing techniques may yield an efficient solution for the prob
 lem. In this paper we make a novel application of the QAML-Z approach to c
 lassify the stop signal versus the background\, and implement it in a quan
 tum annealer machine. We show that this approach together with the pre-pro
 cessing of the data with Principal Component Analysis may yield better res
 ults than conventional multivariate approaches 
LAST-MODIFIED:20211213T143602Z
LOCATION:Online
URL:http://df.vps.tecnico.ulisboa.pt/pt/eventos/quantum-algorithm-for-the-
 classification-of-supersymmetric-top-quark-events/
X-ALT-DESC;FMTTYPE=text/html:<p data-block-key="vqhcf"> The search for sup
 ersymmetric particles is one of the major goals in the next high luminosit
 y phase of the Large Hadron Collider. Supersymmmetric top (stop) searches 
 play a very important role in this respect\, but the unprecedented collisi
 on rate that will be attained at this phase poses new challenges for the s
 eparation between any new signal and the Standard Model background. While 
 classical multivariate techniques might be insufficient in this new enviro
 nment\, the massive parallelism provided by quantum computing techniques m
 ay yield an efficient solution for the problem. In this paper we make a no
 vel application of the QAML-Z approach to classify the stop signal versus 
 the background\, and implement it in a quantum annealer machine. We show t
 hat this approach together with the pre-processing of the data with Princi
 pal Component Analysis may yield better results than conventional multivar
 iate approaches </p>
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