2 December 2022
CERN
Europe/Zurich timezone

Contribution List

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  1. Andrew Gilbert (Northwestern University (US))
    02/12/2022, 09:30
  2. Eleonora Rossi (University of Oxford (GB))
    02/12/2022, 09:55
  3. Sergio Sanchez Cruz (Universitaet Zuerich (CH))
    02/12/2022, 10:20
  4. Fabian Stager (University of Zurich (CH))
    02/12/2022, 11:15
  5. Tim Cohen (CERN)
    02/12/2022, 11:40
  6. Kristin Lohwasser (University of Sheffield (GB))
    02/12/2022, 11:55
  7. Andrei Gritsan (Johns Hopkins University (US))
    02/12/2022, 13:30
  8. Robert Schoefbeck (Hephy Vienna)
    02/12/2022, 13:55
  9. Lukas Alexander Heinrich (Technische Universitat Munchen (DE))
    02/12/2022, 14:20
  10. Olivier Mattelaer (UCLouvain)
    02/12/2022, 14:45
  11. Jannis Lang
    02/12/2022, 15:41
  12. Tisa Biswas (University of Calcutta)
    02/12/2022, 15:46
  13. Ilaria Brivio (University of Zurich)
    02/12/2022, 15:51
  14. Mr Matthew Knight (Imperial College London)
    02/12/2022, 16:11
  15. Abideh Jafari (Deutsches Elektronen-Synchrotron (DE))
    02/12/2022, 16:16
  16. Jaco ter Hoeve (Nikhef and VU Amsterdam)
    02/12/2022, 16:41
  17. Nick Smith (Fermi National Accelerator Lab. (US))
    02/12/2022, 16:46
  18. Anke Biekoetter (IPPP Durham)
    02/12/2022, 16:51
  19. Jacob Julian Kempster (University of Sussex (GB))
    02/12/2022, 17:16
  20. Kirill Skovpen (Ghent University (BE))
    02/12/2022, 17:21
  21. Matteo Presilla (Istituto Nazionale di Fisica Nucleare)
    02/12/2022, 17:31
  22. Kristin Lohwasser (University of Sheffield (GB))
    02/12/2022, 18:01
  23. Kristin Lohwasser (University of Sheffield (GB))
    02/12/2022, 18:16
  24. Kirill Skovpen (Ghent University (BE))

    Combination of EFT results from ATLAS and CMS requires a good understanding of underlying physics processes and systematics treatment. We, in the LHCtopWG, explore the fit models that are used in both experiments to approach the EFT combination by preserving a full-likelihood information in the fit. Preliminary results with the first comparisons are presented together with practical challenges...

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  25. Jannis Lang

    We briefly motivate the linear (SMEFT) and non-linear (HEFT) bottom-up EFT extensions of the Standard Model and demonstrate the difference in organizing the theory for the example of Higgs boson pair production at NLO QCD. Comparing $m_{hh}$ distributions for HEFT and SMEFT for different truncation options of dimension 6 operator contributions, we point out to the pitfalls of a naive...

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  26. Nick Smith (Fermi National Accelerator Lab. (US))

    For binned likelihood fits, a (dimension-6) quadratic EFT parameterization of the bin yield can be represented as a matrix norm. Often, this matrix is low-rank, presenting a possibility for more efficient computation in large fits. Analyzing the eigenspectrum of this matrix may also provide a path towards incremental optimization of binning, providing an intermediate approach to EFT analysis...

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  27. Ilaria Brivio (University of Zurich)
  28. Andrew Gilbert (Northwestern University (US))
  29. Maeve Madigan

    Global determinations of the Wilson coefficients of the Standard Model Effective Field Theory (SMEFT) involve the inference of multiple parameters from a global dataset, and are often based on reinterpreting existing binned LHC measurements within the SMEFT framework. Based on our recently developed open-source framework, ML4EFT, we propose a new methodology that can be adopted by experiments...

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