Contribution List

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  1. Kai-Feng Chen (National Taiwan University (TW))
    05/05/2025, 09:00
    Talk
  2. Matteo Solfaroli Camillocci (CERN)
    05/05/2025, 09:10
    Talk
  3. David Dobrigkeit Chinellato (Austrian Academy of Sciences (AT))
    05/05/2025, 09:35
    Talk
  4. Maria Vieites Diaz (Instituto Galego de Física de Altas Enerxías (IGFAE, USC))
    05/05/2025, 10:00
    Talk
  5. Eliot Jane Walton (Monash University (AU))
    05/05/2025, 11:00
  6. Chris Malena Delitzsch (Technische Universitaet Dortmund (DE))
    05/05/2025, 11:15
  7. Anadi Canepa (Fermi National Accelerator Lab. (US))
    05/05/2025, 11:45
  8. Chunhao Tian (University of Science and Technology of China (CN))
    05/05/2025, 14:00
  9. Giorgio Pizzati (Universita & INFN, Milano-Bicocca (IT))
    05/05/2025, 14:00
  10. Dr Yi Chen (Vanderbilt University (US))
    05/05/2025, 14:00
  11. Emanuele Usai (University of Alabama (US))
    05/05/2025, 14:00
  12. Jamie Gooding (Technische Universitaet Dortmund (DE))
    05/05/2025, 14:00
  13. Duc Ninh Le (Phenikaa University, Hanoi, Vietnam)
    05/05/2025, 14:00
  14. Jose Enrique Garcia Navarro (Univ. of Valencia and CSIC (ES))
    05/05/2025, 14:18
  15. Ming-Yan Lee (Rheinisch Westfaelische Tech. Hoch. (DE))
    05/05/2025, 14:18
  16. Lukas Calefice (Universitat de Barcelona / ICCUB)
    05/05/2025, 14:18
  17. Mateusz Ploskon (Lawrence Berkeley National Lab. (US))
    05/05/2025, 14:18
  18. Junjie Zhu (University of Michigan (US))
    05/05/2025, 14:18
  19. Elizaveta Sitnikova (Deutsches Elektronen-Synchrotron (DE))
    05/05/2025, 14:18
  20. Ting-Hsiang Hsu (National Taiwan University (TW))
    05/05/2025, 14:36
  21. Nuria Valls Canudas (CERN)
    05/05/2025, 14:36
  22. Tairan Xu (University of Michigan (US))
    05/05/2025, 14:36
  23. Fabio Catalano (University of Houston (US))
    05/05/2025, 14:36
  24. Chathuranga Sirimanna
    05/05/2025, 14:36
  25. Hesham El Faham (The University of Manchester)
    05/05/2025, 14:36
  26. Valerio Sarritzu (CERN, UniCA & INFN)
    05/05/2025, 14:54
  27. Alberto Mecca (Universita e INFN Torino (IT))
    05/05/2025, 14:54
  28. Mr Gourab Saha (Centre National de la Recherche Scientifique (FR))
    05/05/2025, 14:54
  29. Laura Šerkšnytė (CERN)
    05/05/2025, 14:54
  30. Dr Sahibjeet Singh (Brookhaven National Laboratory (US))
    05/05/2025, 14:54
  31. Xoán Mayo López (Universidade de Santiago de Compostela - IGFAE)
    05/05/2025, 14:54
  32. Mr Umberto Follo (Politecnico e INFN Torino (IT))
    05/05/2025, 15:12
  33. Takuya Nobe (University of Tokyo (JP))
    05/05/2025, 15:12
  34. Anastasia Kotsokechagia
    05/05/2025, 15:12
  35. Daniele Lombardi (Max-Planck Institut für Physik), Daniele Lombardi
    05/05/2025, 15:12
  36. Cristian Baldenegro (Massachusetts Inst. of Technology (US)), Mateusz Ploskon (Lawrence Berkeley National Lab. (US)), Riccardo Longo
    05/05/2025, 15:12
  37. Farouk Mokhtar (Univ. of California San Diego (US))
    05/05/2025, 15:12
  38. 05/05/2025, 15:30
  39. Dr Tanjona R. Rabemananjara (NIKHEF & VU Amsterdam)
    05/05/2025, 15:30
  40. Caterina Aruta (University of Florida (US))
    05/05/2025, 15:30
  41. Matthias Kerner (KIT)
    05/05/2025, 16:20
    Talk
  42. Arely Cortes-Gonzalez (University of Tokyo (JP))
    05/05/2025, 16:45
    Talk
  43. Matthias Saimpert (CEA - IRFU - Université Paris-Saclay (FR))
    05/05/2025, 17:10
    Talk
  44. Prof. Shinya KANEMURA (Osaka University)
    05/05/2025, 17:35
    Talk
  45. Chia-Ming Kuo (National Central University (TW))
    05/05/2025, 18:00
  46. Alba Soto Ontoso (Universidad de Granada (ES))
    06/05/2025, 09:00
  47. Dr Imanol Corredoira Fernandez (Université Paris-Saclay (FR))
    06/05/2025, 09:25
  48. Andrea Giovanni Riffero (University and INFN Torino (IT))
    06/05/2025, 09:50
  49. Jordy Butter (University of Cambridge (GB))
    06/05/2025, 10:45
  50. Tae Min Hong (University of Pittsburgh (US))
    06/05/2025, 10:45
  51. Jiayi Chen (Simon Fraser University (CA))
    06/05/2025, 10:45
  52. Felix Schlepper (CERN, Heidelberg University (DE))
    06/05/2025, 10:45
  53. Daniel Reichelt, Daniel Reichelt
    06/05/2025, 10:45
  54. BIPLOB BHATTACHERJEE (Indian Institute of Science), Biplob Bhattacherjee (University of Calcutta, Department of Physics)
    06/05/2025, 10:45
  55. Ludovic Michel Scyboz, Ludovic Michel Scyboz (Monash University), Ludovic Scyboz
    06/05/2025, 11:03
  56. Svenja Diekmann (Rheinisch Westfaelische Tech. Hoch. (DE))
    06/05/2025, 11:03
  57. MING-CHUAN CHANG (FU JEN CATHOLIC UNIVERSITY)
    06/05/2025, 11:03
  58. Luis Falda Coelho (CERN)
    06/05/2025, 11:03
  59. Dr Ahmed Hammad (KEK, Japan)
    06/05/2025, 11:03
  60. Soumya Dansana (Vrije Universiteit Brussel (BE))
    06/05/2025, 11:03
  61. Timothy David Evans (Nikhef National institute for subatomic physics (NL))
    06/05/2025, 11:21
  62. Sung Hak Lim (Rutgers University)
    06/05/2025, 11:21
  63. Yushi Mura (Osaka Univ.)
    06/05/2025, 11:21
  64. Roberto Seidita (ETH Zurich (CH))
    06/05/2025, 11:21
  65. Zhongyukun Xu (The University of Edinburgh (GB))
    06/05/2025, 11:21
  66. Hugo Alberto Becerril Gonzalez (Deutsches Elektronen-Synchrotron (DE))
    06/05/2025, 11:21
  67. 06/05/2025, 11:39
  68. Davide Zuliani (Universita e INFN, Padova (IT))
    06/05/2025, 11:39
  69. Leonardo Toffolin (Universita e INFN Trieste (IT))
    06/05/2025, 11:39
  70. Gediminas Sarpis (University of Edinburgh)
    06/05/2025, 11:39
  71. Vilius Čepaitis (Université de Genève (CH))
    06/05/2025, 11:39
  72. Didar Dobur (Ghent University (BE))
    06/05/2025, 11:39
  73. Benjamin Campillo Aveleira
    06/05/2025, 11:57
  74. 06/05/2025, 11:57
  75. 06/05/2025, 11:57
  76. Oscar Martinez (The University of Manchester (GB))
    06/05/2025, 11:57
  77. Alessandro Guida (Humboldt University of Berlin (DE))
    06/05/2025, 11:57
  78. Swagata Mukherjee (Indian Institute of Technology, Kanpur)
    06/05/2025, 11:57
  79. Yue Xu (University of Washington (US))
    06/05/2025, 13:40
  80. Iacopo Vivarelli (Universita e INFN, Bologna (IT))
    06/05/2025, 13:40
  81. Michał Mazurek (National Centre for Nuclear Research (PL))
    06/05/2025, 13:40
  82. Tomas Jezo (WWU ITP)
    06/05/2025, 13:40
    Talk
  83. Sofia Cella (CERN)
    06/05/2025, 13:40
  84. Kay Schoenwald
    06/05/2025, 13:40
  85. Dr Benjamin Audurier (Commissariat à l'énergie atomique et aux énergies alternatives - CEA)
    06/05/2025, 13:58
    Talk
  86. Isobel Ojalvo (Princeton University (US))
    06/05/2025, 13:58
  87. Florian Haslbeck (University of Oxford (GB))
    06/05/2025, 13:58
  88. Changgi Huh (University of Florida (US))
    06/05/2025, 13:58
  89. Tadej Novak (Jozef Stefan Institute (SI))
    06/05/2025, 13:58
  90. Taeun Kwon (Brown University (US))
    06/05/2025, 14:03
  91. Jackson Carl Burzynski (Simon Fraser University (CA))
    06/05/2025, 14:16
  92. Nilotpal Kakati (Weizmann Institute of Science (IL))
    06/05/2025, 14:16
  93. Antra Gaile (Riga Technical University (LV))
    06/05/2025, 14:16
  94. Cristian Baldenegro (Massachusetts Inst. of Technology (US))
    06/05/2025, 14:16
    Talk
  95. Eric Ballabene (University and INFN, Bologna (IT))
    06/05/2025, 14:16
  96. Linxuan Zhu (University of Chinese Academy of Sciences (CN))
    06/05/2025, 14:21
  97. Christian Sonnabend (CERN, Heidelberg University (DE))
    06/05/2025, 14:34
  98. Patrycja Anna Potepa (AGH University of Krakow (PL))
    06/05/2025, 14:34
    Talk
  99. Yuan-Tang Chou (University of Washington (US))
    06/05/2025, 14:34
  100. Junquan Tao (Institute of High Energy Physics, Chinese Academy of Sciences (CN))
    06/05/2025, 14:34
  101. Karri Folan Di Petrillo (University of Chicago)
    06/05/2025, 14:34
  102. Luca Aglietta (Universita e INFN Torino (IT))
    06/05/2025, 14:39
  103. David Yu (University at Buffalo (US))
    06/05/2025, 14:52
  104. Daniel Tapia Takaki (University of Kansas)
    06/05/2025, 14:52
    Talk
  105. Debabrata Bhowmik (National Central University (TW))
    06/05/2025, 14:52
  106. Gouranga Kole (National Taiwan University (TW))
    06/05/2025, 14:52
  107. Damiano Vannicola (Tel Aviv University)
    06/05/2025, 14:52
  108. 06/05/2025, 14:57
  109. Philip Chang (University of Florida (US))
    06/05/2025, 15:10
  110. 06/05/2025, 15:10
  111. Uttiya Sarkar (Rheinisch Westfaelische Tech. Hoch. (DE))
    06/05/2025, 15:10
  112. Michael Spannowsky (IPPP Durham), Michael Spannowsky (University of Durham (GB))
    06/05/2025, 16:00
    Talk
  113. Slava Valouev (University of California Los Angeles (US))
    06/05/2025, 16:25
    Talk
  114. Sara Alderweireldt (The University of Edinburgh (GB))
    06/05/2025, 16:50
    Talk
  115. Yuta Takahashi (University of Florida (US))
    06/05/2025, 17:15
    Talk
  116. Dan Guest (Humboldt University of Berlin 📦)
    06/05/2025, 17:40
    Talk
  117. Alessandro Vicini (University of Milano), Alessandro Vicini (Università degli Studi e INFN Milano (IT))
    07/05/2025, 09:00
  118. Dr Francesco Giuli (INFN e Universita Roma Tor Vergata (IT))
    07/05/2025, 09:25
  119. Davide Pagani (INFN, Bologna (IT))
    07/05/2025, 09:50
  120. Andreas Werner Jung (Purdue University (US))
    07/05/2025, 10:45
  121. Pier Francesco Monni (CERN)
    07/05/2025, 11:10
  122. Meena Meena (Centre National de la Recherche Scientifique (FR))
    07/05/2025, 11:35
  123. Zoltan Ligeti (Lawrence Berkeley National Lab. (US))
    08/05/2025, 09:00
  124. Frederic Machefert (Université Paris-Saclay (FR))
    08/05/2025, 09:25
  125. Michele Atzeni (Massachusetts Inst. of Technology (US))
    08/05/2025, 09:50
  126. Hesham El Faham (The University of Manchester)
    08/05/2025, 10:45
  127. Mihoko Nojiri (KEK)
    08/05/2025, 10:45
  128. Dr Giordon Holtsberg Stark (University of California,Santa Cruz (US))
    08/05/2025, 10:45
  129. Michael Spannowsky (University of Durham (GB))
    08/05/2025, 10:45
  130. Fu-Sheng Yu (Lanzhou University)
    08/05/2025, 10:45
  131. Dr Toni Makela (University of California, Irvine)
    08/05/2025, 10:45
  132. Niels Van Den Bossche (Ghent University (BE))
    08/05/2025, 11:03
  133. Bhagyashree Pagare (Universidade de Santiago de Compostela (ES))
    08/05/2025, 11:03
  134. Rita Sadek (Lawrence Berkeley National Lab. (US))
    08/05/2025, 11:03
  135. Kehang Bai (University of Oregon (US))
    08/05/2025, 11:03
  136. Haruhi Fujimori (Chiba University (JP))
    08/05/2025, 11:05
  137. Harriet Watson (The University of Edinburgh (GB))
    08/05/2025, 11:10
  138. Huacheng Cai (University of Pittsburgh (US))
    08/05/2025, 11:21
  139. Steven Lowette (Vrije Universiteit Brussel (BE))
    08/05/2025, 11:21
  140. Sergey Polikarpov (NRNU MEPhI (RU) and LPI RAS (RU) and JINR)
    08/05/2025, 11:21
  141. Jeongeun Lee (Seoul National University (KR))
    08/05/2025, 11:21
  142. Chia-Ming Kuo (National Central University (TW))
    08/05/2025, 11:25
  143. Nuno Leonardo (LIP)
    08/05/2025, 11:25
  144. Giorgio Pizzati (Universita & INFN, Milano-Bicocca (IT))
    08/05/2025, 11:39
  145. Mingyu Zhang (Central China Normal University CCNU (CN))
    08/05/2025, 11:39
  146. Elena Graverini (EPFL - Ecole Polytechnique Federale Lausanne (CH) and University of Pisa (IT))
    08/05/2025, 11:39
  147. Adrian Casais Vidal (Massachusetts Institute of Technology (MIT))
    08/05/2025, 11:39
  148. Muhammad Ansar Iqbal (University of California Los Angeles (US))
    08/05/2025, 11:40
  149. Mathieu Markovitch (Université Paris-Saclay (FR))
    08/05/2025, 11:45
  150. 08/05/2025, 11:55

    Where could the LHC experiments take this kind of technology?

    Go to contribution page
  151. Dr Tanjona R. Rabemananjara (NIKHEF & VU Amsterdam)
    08/05/2025, 11:57
  152. 08/05/2025, 11:57
  153. Juliette Alimena (DESY)
    08/05/2025, 11:57
  154. 08/05/2025, 13:40
    Talk
  155. Melissa Gaillard (CERN)
    08/05/2025, 13:40
  156. Alba Soto Ontoso (Universidad de Granada (ES))
    08/05/2025, 13:40
  157. Stefano Franchellucci (Universite de Geneve (CH))
    08/05/2025, 13:40
  158. Emma Torro Pastor (Univ. of Valencia and CSIC (ES))
    08/05/2025, 13:40
  159. Linghua Guo (Deutsches Elektronen-Synchrotron (DE))
    08/05/2025, 13:40
  160. Riccardo Longo
    08/05/2025, 13:58
  161. Mariia Savina (Joint Institute for Nuclear Research (RU))
    08/05/2025, 13:58
  162. Fionn Bishop (Centre National de la Recherche Scientifique (FR))
    08/05/2025, 13:58
  163. Jan van der Linden (Ghent University (BE))
    08/05/2025, 13:58
  164. Rong-Shyang Lu (National Taiwan University (TW))
    08/05/2025, 14:05
  165. Ken Oyama (Nagasaki Institute of Applied Science (JP))
    08/05/2025, 14:16
  166. Bruno Sebastian Scheihing Hitschfeld (Massachusetts Institute of Technology)
    08/05/2025, 14:16
    Talk
  167. Prof. Mihoko Nojiri (KEK theory centre)
    08/05/2025, 14:16
  168. Victor Miralles (University of Manchester)
    08/05/2025, 14:16
  169. Prof. Matthew James Strassler (Harvard University)
    08/05/2025, 14:16
  170. Bianca Moisa
    08/05/2025, 14:25
  171. Sukanya Sinha (The University of Manchester (GB))
    08/05/2025, 14:34
  172. Lydia Brenner (Nikhef National institute for subatomic physics (NL))
    08/05/2025, 14:34
  173. Hideyuki Oide (KEK (JP))
    08/05/2025, 14:34
  174. Denys Timoshyn (Charles University (CZ))
    08/05/2025, 14:34
  175. Su-Jeong Ji (Pusan National University (KR))
    08/05/2025, 14:35
    Talk
  176. 08/05/2025, 14:50
  177. Cesare Cazzaniga, Cesare Tiziano Cazzaniga (ETH Zurich (CH))
    08/05/2025, 14:52
  178. Lawrence Lee Jr (University of Tennessee (US))
    08/05/2025, 14:52
  179. Stathes Paganis (National Taiwan University)
    08/05/2025, 14:52
  180. David Marcus E Marckx (Ghent University (BE))
    08/05/2025, 14:52
  181. Nuno Leonardo (LIP)
    08/05/2025, 14:55
    Talk
  182. 08/05/2025, 15:10
  183. Davide Pagani (INFN, Bologna (IT))
    08/05/2025, 15:10
  184. Steven Goldfarb (University of Melbourne (AU))
    08/05/2025, 16:00
    Talk
  185. Antonello Pellecchia (Universita e INFN, Bari (IT))
    08/05/2025, 16:15
    Talk
  186. Clement Camincher (University of Victoria (CA))
    08/05/2025, 16:40
    Talk
  187. Min Jung Kweon (Inha University (KR)), Min Jung Kweon (Inha University (KR))
    08/05/2025, 17:05
  188. Elena Dall'Occo (CERN)
    08/05/2025, 17:30
    Talk
  189. Deepa Thomas (University of Texas at Austin (US))
    09/05/2025, 09:00
    Talk
  190. Georgy Kornakov (Warsaw University of Technology (PL))
    09/05/2025, 09:25
    Talk
  191. Takashi Kaneko
    09/05/2025, 09:50
  192. Miguel Ramos Pernas (University of Warwick (GB))
    09/05/2025, 10:45
  193. Jose Enrique Garcia Navarro (Univ. of Valencia and CSIC (ES))
    09/05/2025, 10:45
  194. Dr ismail soudi (University of Jyvaskyla)
    09/05/2025, 10:45
    Talk
  195. Yu-Dai Tsai (University of California, Irvine)
    09/05/2025, 10:45
  196. Arianna Tinari
    09/05/2025, 10:45
  197. Giovanni Limatola
    09/05/2025, 10:45
  198. Jorn Bach (Deutsches Elektronen-Synchrotron (DE))
    09/05/2025, 11:03
  199. Adrian Fereydon Nassirpour (Sejong University (KR))
    09/05/2025, 11:03
    Talk
  200. Francesco Tenchini (Universita & INFN Pisa (IT))
    09/05/2025, 11:03
  201. Marcin Chrzaszcz (Polish Academy of Sciences (PL))
    09/05/2025, 11:03
  202. Yu-Wei Kao (National Taiwan University (TW))
    09/05/2025, 11:03
  203. Iaroslava Bezshyiko (University of Zurich (CH))
    09/05/2025, 11:03
  204. Cameron Michael Garvey (University of Cape Town (ZA))
    09/05/2025, 11:21
  205. Zhiqing Philippe Zhang (IJCLab, Orsay (FR))
    09/05/2025, 11:21
  206. Shih-Chieh Hsu (University of Washington Seattle (US))
    09/05/2025, 11:21
  207. Huichao Song
    09/05/2025, 11:21
    Talk
  208. Tommaso Fulghesu (Aix Marseille Univ, CNRS/IN2P3, CPPM, Marseille, France)
    09/05/2025, 11:21
  209. Giuseppe Carratta (University and INFN, Bologna (IT))
    09/05/2025, 11:21
  210. Bogdan Kutsenko (Aix Marseille Univ, CNRS/IN2P3, CPPM, Marseille, France)
    09/05/2025, 11:39
  211. Pablo Eduardo Menéndez-Valdés Pérez (Universidade de Santiago de Compostela (ES))
    09/05/2025, 11:39
  212. Natalia Triantafyllou (CERN)
    09/05/2025, 11:39
  213. Alessandro Vicini (Università degli Studi e INFN Milano (IT))
    09/05/2025, 11:39
  214. Halil Saka (University of Cyprus (CY))
    09/05/2025, 11:39
  215. Andrew Larkoski (Massachusetts Institute of Technology), Andrew Larkoski (American Physical Society)
    09/05/2025, 11:39
  216. Emily Minyun Tsai (Northeastern University (US))
    09/05/2025, 11:57
  217. Ivan Cambon Bouzas (Universidade de Santiago de Compostela (ES))
    09/05/2025, 11:57
  218. Luca Pizzimento (University of Hong Kong (HK))
    09/05/2025, 11:57
  219. Maurizio Pierini (CERN)
    09/05/2025, 11:57
  220. Davide Zuliani (Universita e INFN, Padova (IT))
    09/05/2025, 11:57
  221. Supriya Sinha (Deutsches Elektronen-Synchrotron (DE))
    09/05/2025, 13:40
  222. Ulrik Egede (Monash University (AU))
    09/05/2025, 13:40
  223. Ya-Juan Zheng
    09/05/2025, 13:40
  224. Theodoros Geralis (Nat. Cent. for Sci. Res. Demokritos (GR))
    09/05/2025, 13:40
  225. Petar Maksimovic (Johns Hopkins University (US))
    09/05/2025, 13:40
  226. Anastasia Boushmelev (University of Siegen), Anastasia Boushmelev (University of Siegen), Anastasia Boushmelev (Siegen University)
    09/05/2025, 13:40
  227. Carissa Joyce Cesarotti
    09/05/2025, 13:58
  228. Lukas Calefice (Universitat de Barcelona / ICCUB)
    09/05/2025, 13:58
  229. Leszek Adamczyk (AGH University of Krakow (PL))
    09/05/2025, 13:58
  230. Changgi Huh (University of Florida (US))
    09/05/2025, 13:58
  231. Daniele Lombardi (Max-Planck Institut für Physik), Daniele Lombardi
    09/05/2025, 13:58
  232. Nikolina Ilic (University of Toronto (CA))
    09/05/2025, 13:58
  233. George Wei-Shu Hou (National Taiwan University)
    09/05/2025, 14:16
  234. Alberto Belvedere (Deutsches Elektronen-Synchrotron (DE))
    09/05/2025, 14:16
  235. Taeun Kwon (Brown University (US))
    09/05/2025, 14:16
  236. Peilian Li (University of Chinese Academy of Sciences)
    09/05/2025, 14:16
  237. Patricia Helena Wagner (ETH Zurich (CH))
    09/05/2025, 14:16
  238. Mohamed Krab
    09/05/2025, 14:16
  239. Yu-Wei Kao (National Taiwan University (TW))
    09/05/2025, 14:34
  240. Óscar Boente García (Laboratoire Leprince-Ringuet, Ecole polytechnique)
    09/05/2025, 14:34
  241. Heribertus Bayu Hartanto (Asia Pacific Center for Theoretical Physics (APCTP), Pohang, South Korea)
    09/05/2025, 14:34
  242. Gemma Tinti (INFN e Laboratori Nazionali di Frascati (IT))
    09/05/2025, 14:34
  243. Diego Fernandez Del Val (CIEMAT - Centro de Investigaciones Energéticas Medioambientales y Tec. (ES))
    09/05/2025, 14:34
  244. Natsumi Nagata
    09/05/2025, 14:34
  245. Harriet Watson (The University of Edinburgh (GB))
    09/05/2025, 14:52
  246. Jason Fan (Cornell University (US))
    09/05/2025, 14:52
  247. 09/05/2025, 14:52
  248. Dr Yikun Wang (John Hopkins University)
    09/05/2025, 14:52
  249. Matthew Lim (University of Sussex)
    09/05/2025, 14:52
  250. Roy Schimmel Brener (Weizmann Institute of Science (IL))
    09/05/2025, 14:52
  251. 09/05/2025, 15:10
  252. Mei Bai
    09/05/2025, 15:10
  253. Giacomo Volpe (Universita e INFN, Bari (IT))
    09/05/2025, 15:10
  254. Dr Claudius Krause (HEPHY Vienna (ÖAW))
    09/05/2025, 16:00
  255. Guy Wilkinson (University of Oxford (GB)), Sarah Marie Demers (Yale University (US))
    09/05/2025, 16:25
  256. Prof. Daniel Baumann
    09/05/2025, 16:35
  257. Paul Jackson (University of Adelaide)
    09/05/2025, 17:05
  258. Prof. Matthew James Strassler (Harvard University)
    09/05/2025, 17:35
    Talk
  259. Federico Antinori (Universita e INFN, Padova (IT))
    09/05/2025, 18:05
  260. Sarah Marie Demers (Yale University (US))
    09/05/2025, 18:15
  261. Punnawich Chokeprasert (Chulalongkorn University (TH))
    Experimental poster

    The high granularity tracker of CMS is the largest silicon tracker ever built with 1856 pixel and 15148 strip detector modules that provide accurate track reconstruction. To achieve high precision in measurements of the momenta of charged particles, corrections for the position, rotation and curvature of these modules must be found; such a procedure is known as tracker alignment. Magnet...

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  262. Junwon Oh (University of Seoul, Department of Physics (KR))
    Experimental poster

    In the CMS Phase-II upgrade for High-Luminosity LHC (HL-LHC), designing an efficient Level-1 trigger system is a challenging task due to multiple proton-proton collisions (pileup). The Missing Transverse Energy (MET) can be seriously affected by the high-pileup environment without mitigations. We introduce the improved Level-1 MET algorithm assisted by the jet energy resolution (JER),...

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  263. Bogdan Kutsenko (Aix Marseille Univ, CNRS/IN2P3, CPPM, Marseille, France)
  264. Elise Maria Le Boulicaut Ennis (Yale University (US)), Giuseppe Carratta (University and INFN, Bologna (IT)), Steven Goldfarb (University of Melbourne (AU))
    Experimental poster

    The ATLAS Collaboration at CERN has developed a wide array of resources to support informal education for all ages. From colouring books and activity sheets for children, to fact sheets and cheat sheets for more advanced learners, ATLAS provides a collection of printable resources that can be used to learn more about particle physics and the ATLAS detector. In addition, the latest 3D printed...

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  265. ATLAS Collaboration, Leonardo Toffolin (Universita e INFN Trieste (IT))

    In the high-luminosity era of the Large Hadron Collider, the instantaneous luminosity is expected to reach unprecedented values, resulting in up to 200 proton-proton interactions in a typical bunch crossing. To cope with the resulting increase in occupancy, bandwidth and radiation damage, the ATLAS Inner Detector will be replaced by an all-silicon system, the Inner Tracker (ITk). The innermost...

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  266. Ana Peixoto (University of Washington (US)), Steven Goldfarb (University of Melbourne (AU))
    Experimental poster

    Since 2010, ATLAS Virtual Visits have revolutionised HEP outreach by connecting its collaboration members with audiences worldwide. The Virtual Visit model brings inspiring scientific outreach events to visitors who would otherwise not have such an opportunity. Over the years, by offering the visits in a variety of languages and using a variety of online platforms, we have expanded their...

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  267. Dr Michael Kwok Lam Chu (Weizmann Institute of Science (IL))

    Modern experimental physics research, particularly in particle physics, requires extensive data analysis efforts to identify significant signals indicative of new physics. We present BumpNet, a novel Neural Network (NN) architecture designed to conduct model-independent searches for mass bumps arising from new physics phenomena. This model maps invariant mass histograms into statistical...

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  268. Dvij Mankad (Weizmann Institute of Science (IL))
  269. Jeewon Heo (University of Seoul (KR))
    Experimental poster

    The GE1/1 system, based on Gas Electron Multiplier (GEM) technology, has been integrated into the forward region of the Compact Muon Solenoid (CMS) experiment as part of the Phase-2 upgrade. This GEM-based upgrade aims to bolster muon detection in the high-radiation environment expected at the High-Luminosity Large Hadron Collider (HL-LHC), which will begin operation around 2030 and is...

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  270. Jeewon Heo (University of Seoul (KR)), Woojin Jang (University of Seoul, Department of Physics (KR))
    Experimental poster

    The Cabibbo-Kobayashi-Maskawa (CKM) matrix governs flavor-changing quark interactions, with its element $\vert V_{ts} \vert$ describing the coupling between the top and strange quarks. Although the decay $t \to sW$ has not yet been observed directly, a measurement of $\vert V_{ts} \vert$ can be pursued by identifying strange jets produced in top quark decays. However, the relative rarity of $t...

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  271. Yeonju Kim (University of Seoul, Department of Physics (KR))
    Experimental poster

    This study explores the use of deep learning techniques to enhance local muon reconstruction in the ME0 detector of the CMS experiment. The ME0 detector, based on Gas Electron Multiplier (GEM) technology, will be introduced during the Phase-2 upgrade to extend muon detection into the forward pseudorapidity range 2.0 < |η| < 2.8. Because of high pileup, accurate muon reconstruction is...

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  272. Huacheng Cai (University of Pittsburgh (US))
    Experimental poster

    The High-Luminosity LHC will start operations for physics around 2030, allowing to collect ten times more data than what have been achieved by the LHC.This expansion of the dataset will be achieved by increasing the number of collisions per bunch crossing, leading, however, to higher radiation doses and busier events. To cope with those harsher data taking conditions, the ATLAS Liquid Argon...

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  273. Jules Dartois (Université Paris-Saclay (FR))
    Experimental poster

    The High-Luminosity LHC will start operations for physics around 2030, allowing to collect ten times more data than what will have been achieved by the LHC. This expansion of the dataset will be achieved by increasing the number of collisions per bunch crossing, leading, however, to higher radiation doses and busier events. To cope with those harsher data taking conditions and to be compatible...

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  274. Shogo Manita (Nagoya University (JP))
    Experimental poster

    The design and status are reported for the development of the Level-0 endcap muon trigger firmware of the ATLAS experiment at HL-LHC. An ATCA blade with an XCVU13P FPGA has been developed, and the firmware uses detector hits from the Thin Gap Chambers and processed data from other detectors to reconstruct muon candidates. An algorithm that minimises the use of XCVU13P FPGA resources is a major...

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  275. Shota Koji (Nagoya University (JP))
    Experimental poster

    The design and status are reported for the development of the Level-0 muon trigger hardware of the ATLAS experiment at HL-LHC. The hardware is designed as an ATCA blade, integrating a Virtex UltraScale+ XCVU13P FPGA, a Mercury XU5 MPSoC mezzanine card, and a CERN-developed IPMC. The FireFly modules provide 120 transmitter and receiver pairs. The clock is managed by a Si5395 chip and employs a...

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  276. Rishabh Raturi (Indian Institute of Technology Bhubaneswar)
    Experimental poster

    The differential branching fractions results for the flavor changing neutral current Bs to phi(1020) mu mu are shown as a function of dimuon mass squared using the integrated luminosity of 137.5 \fb of data collected by the CMS detector at center of mass energy of 13 TeV

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  277. Sakinah S
    Theory poster

    A dynamical model based on a phenomenological charm quark-nucleon (c-N) potential $v_{cN}$ and the Pomeron-exchange mechanism is constructed to investigate the $J/\psi$ photo-production on the nucleon from threshold to invariant mass W = 300 GeV. The c-N potential $v_{cN}(r)$ is parameterized in a form such that the predicted $V_{J/\psi N} (r)$ at large distances has the same Yukawa potential...

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  278. Steven Goldfarb (University of Melbourne (AU))
    Experimental poster

    In 2024 we initiated a pilot podcast at CERN to explore the platform as a means not only to inform and educate, but to engage the public by bringing them into our world. With more than half a billion podcast listeners in the world today, there is a potential not only to reach new, diverse audiences, but also to gain their trust by welcoming them into our conversation and sharing the human...

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  279. Cheng Jiang (The University of Edinburgh (GB))
    Experimental poster

    The reconstruction, identification and calibration of Electrons and Photons is crucial for many measurements and searches with the ATLAS detector. A high efficiency at equally high background rejection is important to select pure event samples to measure Higgs Bosons properties and Standard Model parameters or to search for Di-Higgs production. An accurate calibration enhances resonances and...

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  280. Junpei Maeda (Kobe University (JP))
    Experimental poster

    he Level-1 muon endcap trigger in the ATLAS experiment utilises signals from the Thin Gap Chambers (TGCs) located in the outer muon stations. A significant challenge for this system has been the high background rate caused by particles not originating at the interaction point, which increased the Level-1 trigger rate. To address this issue, the New Small Wheel (NSW) detectors, installed at the...

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  281. Woohyeon Heo (University of Seoul, Department of Physics (KR))
    Experimental poster

    The ME0 detector is a Gas Electron Multiplier (GEM) detector which will be installed as part of the phase-2 upgrade of the Compact Muon Solenoid (CMS) experiment in the Large Hadron Collider (LHC). ME0 is located in the endcap area of the CMS muon system. It is the only muon detector that covers |eta| > 2.4. Due to the high background environment, keeping the trigger rate low while maintaining...

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  282. Janusz Andrzej Rosiek (University of Warsaw (PL))
    Theory poster

    Beyond the Standard Model physics may have new sources of CP violation. In particular, CP violation in the Yukawa interactions is welcome for electroweak baryogenesis. The most general CP violating $H\psi\psi$ Yukawa interaction can be written as $ -\frac{m_\psi}{v}\bar\psi ( a + ib\gamma_5)\psi$, where $a,b$ are real valued parameters ($a^{SM} = 1, b^{SM}=0$). If both $a\neq 0$ and $b\neq 0$,...

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  283. David Marcus E Marckx (Ghent University (BE))
    Experimental poster

    In this poster we present the first CMS differential cross section measurements of top quark pair production in association with a W boson (ttW). The measurements are using 138/fb of proton-proton collision data collected between 2016 and 2018 at √s = 13 TeV. We present (normalized) differential cross-sections, which can provide relevant feedback to the modeling community and are important for...

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  284. Leonardo Toffolin (Universita e INFN Trieste (IT)), Steven Goldfarb (University of Melbourne (AU))
    Experimental poster

    The ATLAS Collaboration has recently, for the first time, released a large volume of data for use in research publications, with its use being now extended via a new education-focused release. The 2015 and 2016 proton collision datasets, along with a large quantity of matching simulated data, in a light format, PHYSLITE, for research purposes, and in a simplified version for educational...

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  285. Feng-Yang Hsieh (National Taiwan University)
    Theory poster

    The study of multi-Higgs production is essential for probing the Higgs boson’s self-interactions and exploring potential physics beyond the Standard Model. In this work, we investigate Tri-Higgs events decaying into six b-quarks and propose a novel machine learning approach to enhance experimental sensitivity. Our method utilizes the Symmetry Preserving Attention Network (SPANet). This neural...

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  286. Chih-Lin Lin (National Central University (TW))
    Experimental poster

    Photons and electrons behave similarly in the electromagnetic calorimeter at CMS. However, a key distinguishing feature lies in the presence of signals detected in the tracker. To enhance the discrimination between these two particles and reduce contamination in analyses involving photons in the final state, two complementary electron veto methods are investigated. One method focuses on...

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  287. Jing-Ge Shiu (National Taiwan University (TW))
    Experimental poster

    The Belle and Belle~II experiments have collected a
    $1.4~\mathrm{ab}^{-1}$ sample of $e^+e^-$ collision data at
    centre-of-mass energies near the $\Upsilon(nS)$ resonances. This sample
    contains approximately 1.3 billion $e^+e^-\to \tau^+\tau^{-}$ events,
    which we use to search for lepton-flavour violating decays. We present
    searches for $\tau-\to \mu^-\mu^-\mu^+$, $\tau^-\to\Lambda\pi^-$,...

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  288. Aman Salikar (Fu-Jen Catholic University), MING-CHUAN CHANG (FU JEN CATHOLIC UNIVERSITY)
    Experimental poster

    The Belle(II) experiment has collected 711(365)$\text{fb}^{-1}$ of data at the (Super)KEKB collider, utilizing $e^+e^- \to B\bar{B}$ collisions at a center-of-mass energy corresponding to the $\Upsilon(4S)$ resonance. These data, characterized by low particle multiplicity and constrained initial-state kinematics, provide an ideal environment to search for rare electroweak penguin decays....

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  289. Seungjin Yang (Kyung Hee University (KR))
    Experimental poster

    In hadron colliders, event reconstruction of processes involving neutrinos is challenging because the initial partons cannot be fully constrained, detector responses are not ideal, and multiple interactions are overlaid in the same event.
    Many algorithms have been proposed to reconstruct events with missing momentum information using additional constraints based on prior knowledge of...

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  290. Anne Gaa (Georg August Universitaet Goettingen (DE))
    Experimental poster

    The ATLAS Experiment is developing the new Inner Tracker (ITk), consisting of a pixel and strip detector, in preparation for the High-Luminosity LHC Upgrade. Essential parts of the ITk Pixel detector are the loaded local supports, which include the silicon pixel modules and associated services. The prototyping has passed its final design review phase in preparation of the construction of the...

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  291. Kai Yi (Nanjing Normal University (CN))
    Experimental poster

    We present a comprehensive study of near-threshold structures in the ( J/\psi J/\psi ) mass spectrum using the fully reconstructed ( J/\psi J/\psi \rightarrow 4\mu ) final state, based on proton-proton collision data at ( \sqrt{s} = 13 ) and 13.6 TeV collected by the CMS experiment. With approximately four times more ( J/\psi ) pair candidates compared to the previous Run 2 dataset,...

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  292. Uttiya Sarkar (Rheinisch Westfaelische Tech. Hoch. (DE))
    Experimental poster

    The real-time identification and selection of b-jets play a crucial role in the CMS experiment, particularly in searches involving heavy-flavor jets. The High-Level Trigger (HLT) is designed to efficiently select events of interest while maintaining a manageable output rate of a few kilohertz. This poster presents the commissioning and performance evaluation of b-jet triggers in the CMS HLT...

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  293. Anastasia Boushmelev (Siegen University)
    Theory poster

    Bringing the dramatic advantages and the life-changing impact of fundamental research to the attention of the general public, as well as getting the young generations interested in the corresponding research topics and research methods is of utmost importance. Therefore, we started to develop a comprehensive program of outreach tasks.

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  294. Kotaro Chiba (Nagoya University (JP))
    Experimental poster

    The TGC detectors installed in the endcap inner stations of the ATLAS detector will be upgraded from the doublet to triplet chambers for an improved selectivity of the first-level muon trigger. The noise level performance and cosmic muon detection capability were evaluated for three triplet chambers from the initial series production. The results met the criteria, and the three chambers were...

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  295. Svenja Diekmann (Rheinisch Westfaelische Tech. Hoch. (DE))

    The Physics Project Days (PPD) are an outreach project dedicated to promote gender equality in physics. During this four-day workshop, female high school students are invited to experience modern research in an unbiased environment to eliminate possible concerns about a career in science. In the project, the students investigate and gain insights into one topic from a broad spectrum of fields,...

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  296. Sarah Marie Demers (Yale University (US))
  297. Rabemananjara Tanjona Radonirina
  298. Dr Tanjona R. Rabemananjara (NIKHEF & VU Amsterdam)
  299. Shahzaib Abbas (University of Karachi)
    Theory poster

    Particle physics outreach plays a crucial role in inspiring future scientists and fostering public engagement with fundamental research. Our initiative focuses on making collider physics accessible in Pakistan, breaking systemic barriers, and promoting inclusivity in science. Since 2021, students from the University of Karachi have actively led various educational programs, public events, and...

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  300. Federica Fabbri (Universita e INFN, Bologna (IT))
    Theory poster

    We study the quantum properties of Higgs-boson decays into vector bosons and their sensitivity to new physics, parametrized using an effective extension of the Lagrangian. We simulate four-fermion final states, focusing on the $H\to ZZ^{(*)}$ decay leading to four charged leptons in the final states, and compute quantum observables within the standard model up to next-to-leading order (NLO)...

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  301. Pin-I Chen (National Central University (TW))
    Experimental poster

    In modern particle physics, a key objective is to examine the Standard Model (SM) using data collected from collider experiments. Vector boson scattering (VBS), the interaction of vector bosons emitted by quarks from colliding protons, is a crucial study at the LHC. It is highly sensitive to physics beyond the Standard Model (BSM) and provides valuable insights into electroweak symmetry...

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  302. Chunhao Tian (University of Science and Technology of China (CN))
    Experimental poster

    Muon reconstruction performance plays a crucial role in the precision and sensitivity of the Large Hadron Collider (LHC) data analysis of the ATLAS experiment. Accurately measuring the muon performance of the ATLAS detector is of paramount importance to provide fundamental input to physics analyses involving muons. Furthermore, the ATLAS Muon Spectrometer was significantly upgraded for LHC...

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  303. Katarina Anthony (CERN), Steven Goldfarb (University of Melbourne (AU))
    Experimental poster

    In 2025, the landscape of science communication is shifting dramatically. Once-dominant social media platforms are in decline, fractured by distrust, misinformation, and algorithmic echo chambers. For large-scale scientific collaborations, this creates both challenges and opportunities to take new approaches. Traditional social media outreach is losing effectiveness, requiring new strategies...

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  304. Younghoon Lee (Sungkyunkwan University (KR))
    Experimental poster

    In this poster, we present recent results from studies of flavor-changing neutral current (FCNC) processes involving a top quark, a Z boson, and an up or charm quark in the final state. The analysis is based on proton-proton collision data collected by the CMS experiment during Run II of the Large Hadron Collider at a center-of-mass energy of 13 TeV. The search focuses on final states with...

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  305. Serafima Nechaeva (Universita e INFN, Bologna (IT))
    Experimental poster

    Particles with lifetimes exceeding a few ns arise in a broad spectrum of beyond-Standard Model scenarios. This poster presents a search for massive, charged, long-lived particles exploiting 140 fb−1 of pp collision data collected by the ATLAS experiment between the years 2015-2018. Since these particles are expected to move significantly slower than the speed of light, they leave anomalously...

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  306. Niels Van Den Bossche (Ghent University (BE))
    Experimental poster

    The observation of four-top-quark production marks a significant milestone in advancing our understanding of the top-quark sector. In this poster, we present a BSM interpretation of four-top-quark production, exploring three different scenarios: (a) an interpretation within the SMEFT framework, (b) a search for top-philic heavy resonances, and (c) the extraction of the top-quark Yukawa...

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  307. Yu-Hsuan Chou (National Central University (TW))
    Experimental poster

    The shape of the Higgs boson potential can be accessed by measuring the trilinear self coupling, which is the only direct way to probe the mechanism of electroweak symmetry breaking and the stability of the Higgs potential. A search for non-resonant Higgs boson pair production via gluon-gluon and vector boson fusion processes in final states with two bottom quarks and two photons is presented,...

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  308. Hui-Chi Lin (University of Michigan (US))
    Experimental poster

    The exploration of Higgs boson self-coupling has remained a key focus of research since its discovery in 2012. The Higgs boson pair production in association with a top-quark pair, ttHH, is one of the rare and unexplored processes in the Standard Model (SM), with a cross-section of 0.756 (0.860) fb at 13 (13.6) TeV. Due to the strong Yukawa coupling of the top quark, ttHH is highly sensitive...

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  309. Ijeong Na
    Experimental poster

    The Belle and Belle~II experiment have collected samples of $e^+e^-$
    collision data at centre-of-mass energies near the $\Upsilon(nS)$
    resonances. These data have constrained kinematics and low
    multiplicity, which allow searches for dark sector particles in the mass
    range from a few MeV to 10~GeV. Using a 426~fb$^{-1}$ sample collected
    by Belle~II, we search for inelastic dark matter...

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  310. Daisuke Hashimoto (Nagoya University (JP))
    Experimental poster

    The trigger and readout electronics for the thin gap chamber (TGC) detector at the ATLAS experiment will be replaced to fully exploit the physics potential of HL-LHC. For a flexible and highly efficient trigger algorithm, the new on-detector boards transmit data of all TGC hits at every bunch crossing to the off-detector boards to reconstruct muon tracks. In 2025, a major milestone was...

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  311. Yi-Lin Yang (University of Tokyo (JP))
    Experimental poster

    The Liquid Argon Calorimeters are employed by ATLAS for all electromagnetic calorimetry in the pseudo-rapidity region |η| < 3.2, and for hadronic and forward calorimetry in the region from |η| = 1.5 to |η| = 4.9. They also provide inputs to the first level of the ATLAS trigger. In 2022 the LHC started its Run 3 period with an increase in luminosity and and resulting in a pile-up of up to 65...

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  312. Hsin-Wei Hsia (The State University of New York SUNY (US))
    Experimental poster

    Results for the CMS HL-LHC upgrade of the Pixel Tracker Detector’s final design module obtained at the Fermilab Test Beam Facility will be reported. Performance characteristics such as module efficiency, spatial resolution, and cross-talk will be emphasized. Preliminary results indicated that the performance characteristics are consistent with the expected figures.

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  313. Paolo Gandini (INFN Milano (IT))
    Experimental poster

    ALADDIN (An Lhc Apparatus for Direct Dipole moments INvestigation) is a new proposed compact fixed-target experiment at the LHC, which will enable a unique program of measurements of charm baryon electromagnetic dipole moments. The experiment relies on an innovative storage-ring layout capable of deflecting protons from the beam halo towards a solid target paired to a bent crystal where...

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  314. Steven Goldfarb (University of Melbourne (AU))
    Experimental poster

    The ATLAS Collaboration comprises nearly 6000 members, from over 100 different countries across the globe. The broad spectrum of cultural, social, economic, linguistic and educational backgrounds of these individuals is not only enriching to the community, but is critical to the success of the experiment's scientific research. To support this rich diversity, ATLAS is in the process of...

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  315. Dr Matthew Kirk (IPPP, Durham, UK)
  316. Sanjoy Mandal
  317. Patrycja Anna Potepa (AGH University of Krakow (PL))
    Experimental poster

    Measurements of top-quark pairs in heavy-ion collisions are expected to provide novel probes of nuclear parton distribution functions as well as to bring unique information about the time evolution of strongly interacting matter. We report the observation of top-quark pair production in proton-lead collisions at the centre-of-mass energy of 8.16 TeV in the ATLAS experiment at the LHC....

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  318. Ya-Juan Zheng
    Theory poster

    We study the toponium formation signatures at the LHC.

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  319. Yu Onoda (Institute of Science Tokyo (JP))
    Experimental poster

    The identification of jets containing b-hadrons is key to many physics analyses at the LHC, including measurements involving Higgs bosons or top quarks, and searches for physics beyond the Standard Model. We will present improvements to separate b-jets from jets stemming from lighter quarks with the ATLAS detector. The improved performance originates from state-of-the-art machine learning...

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  320. Davide Zuliani (Universita e INFN, Padova (IT))