7–9 Nov 2019
Universidad de Medellin - Colombia
America/Bogota timezone

Contribution List

91 out of 91 displayed
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  1. 07/11/2019, 08:00
  2. Jose WF Valle (AHEP Group at IFIC, CSIC- U Valencia)
    07/11/2019, 09:00
  3. Alexander Friedland (SLAC)
    07/11/2019, 09:30
  4. Alex Tapia
    07/11/2019, 10:00
  5. Hiroshi Nunokawa (Pontificia Universidade Catolica do Rio de Janeiro)
    07/11/2019, 11:00
  6. Deborah Harris
    07/11/2019, 11:30
  7. Mary Bishai (Brookhaven National Laboratory (US))
    07/11/2019, 12:00
  8. Dr François Drielsma (Universite de Geneve (CH))
    07/11/2019, 14:00
    Parallel Session Talk: Systematics and Analysis Techniques
  9. Saul Cuen-Rochin (TRIUMF)
    07/11/2019, 14:00
    Parallel Session Talk: Neutrino Detectors
  10. Tanner Kaptanoglu (University of Pennsylvania)
    07/11/2019, 14:20
    Parallel Session Talk: Neutrino Detectors
  11. Nick Prouse (TRIUMF)
    07/11/2019, 14:30
    Parallel Session Talk: Systematics and Analysis Techniques
  12. Sergey Suvorov (Russian Academy of Sciences (RU), CEA Saclay/IRFU)
    07/11/2019, 14:40
    Parallel Session Talk: Neutrino Detectors
  13. Alexander Parada Valencia (Universidad Santiago de Cali)
    07/11/2019, 14:55
    Parallel Session Talk: Systematics and Analysis Techniques
  14. Rory Fitzpatrick
    07/11/2019, 15:05
    Parallel Session Talk: Neutrino Detectors
  15. Konstantinos Mavrokoridis (University of Sheffield)
    07/11/2019, 16:00
    Parallel Session Talk: Neutrino Detectors
  16. Biswaranjan Behera (Colorado State University)
    07/11/2019, 16:00
    Parallel Session Talk: Systematics and Analysis Techniques
  17. Mr Patrick Koller (Universitaet Bern (CH))
    07/11/2019, 16:25
    Parallel Session Talk: Neutrino Detectors
  18. Sebastien Prince (Harvard University (US))
    07/11/2019, 16:25
    Parallel Session Talk: Systematics and Analysis Techniques
  19. Mark Hartz
    07/11/2019, 16:50
    Parallel Session Talk: Neutrino Detectors
  20. Mr Ivan Caro Terrazas (Colorado State University)
    07/11/2019, 16:50
    Parallel Session Talk: Systematics and Analysis Techniques
  21. Wei Wang (Academia Sinica (TW)/Nanjing University (CN))
    07/11/2019, 17:10
    Parallel Session Talk: Neutrino Detectors
  22. Ivan Lepetic (Illinois Institute of Technology)
    07/11/2019, 17:15
    Parallel Session Talk: Systematics and Analysis Techniques
  23. David Martinez (South Dakota School of Mines and Technology)
    07/11/2019, 17:30
  24. Luke Pickering (Michigan State University)
    08/11/2019, 08:00
  25. Erika Catano-Mur (William & Mary)
    08/11/2019, 08:30
  26. Linyan WAN
    08/11/2019, 09:00
  27. Bryce Littlejohn (Illinois Institute of Technology)
    08/11/2019, 09:30
  28. Prof. Takaaki Kajita
    08/11/2019, 10:00

    The Discovery of neutrino oscillations (and related topics)

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  29. Dr Sebastien Prince (Harvard University (US))
    08/11/2019, 13:30
  30. Mahdi Taani (University of Edinburgh)
    08/11/2019, 14:00
  31. Lino Miramonti (Milano University & INFN)
    08/11/2019, 14:30
  32. Matthew Toups (Fermi National Accelerator Laboratory)
    08/11/2019, 15:00
  33. Mark Hartz (Kavli IPMU (WPI), University of Tokyo)
    08/11/2019, 16:00
  34. Kevin McFarland (University of Rochester)
    08/11/2019, 16:30
  35. Luke Pickering (Michigan State University)
    08/11/2019, 17:00
  36. Jennifer Raaf (Fermi National Accelerator Laboratory)
    08/11/2019, 17:30
  37. Andrea Pocar (University of Massachusetts, Amherst)
    09/11/2019, 08:30
  38. Yasuhiro Nakajima (ICRR, the University of Tokyo)
    09/11/2019, 09:00
  39. HAROLD YEPES RAMIREZ (Yachay Tech / KM3NeT)
    09/11/2019, 09:30
  40. 09/11/2019, 10:00
  41. Dr Aaron Higuera (University of Houston (US))
    09/11/2019, 11:00
  42. Prof. Frank Krennich (Iowa State University )
    09/11/2019, 11:30
  43. Prof. Andrew Mastbaum (Rutgers University )
    09/11/2019, 12:00
  44. Jaret Heise (SURF)
    09/11/2019, 14:00
  45. Hidekazu TANAKA (University of Tokyo)
    09/11/2019, 14:30
  46. Aldo Ianni (INFN LNGS)
    09/11/2019, 15:00
  47. Prof. Andrew Mastbaum (Rutgers University )
    09/11/2019, 16:00
  48. Andre De Gouvea (Northwestern University)
    09/11/2019, 16:30
  49. Chang Kee Jung (Stony brook Universty (US))
    09/11/2019, 17:00
  50. Hidekazu TANAKA (University of Tokyo)
    09/11/2019, 17:15
  51. Laura Muñoz (Univer)

    We present an updated fit of the model independent electroweak~(EW) parameters by using all the available low energy data for neutrino scattering from nuclei. For the theoretical expressions we make use of the CTQ10 set of Parton Distribution Functions~(PDFs) taking into account the corresponding uncertainties coming from the charm mass and the PDF parameters. We find that that these...

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  52. James Robert Sinclair (Universitaet Bern (CH))
    Parallel Session Talk: Neutrino Detectors

    ArgonCube is a novel, modular approach to Liquid Argon Time Projection Chambers (LArTPCs). ArgonCube segments the total detector volume into an number of electrically and optically isolated TPCs sharing a common cryostat, providing improved performance while also mitigating technical risks with LAr purity and
    electric field. The field shaping uses a continuous resistive plane, a field-shell,...

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  53. Carlos Eduardo Cocha Toapaxi

    In this work, the new digital system installed at CLEAR was analyzed. To measure its efficiency, beam Emittance and Twiss parameters were tested by comparing the results of the Basler digital camera with the results of the traditional BTV system. The new digital system presented better results regarding the quality and resolution of the beam images obtained. In addition, this digital system...

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  54. Lingge Li
    Parallel Session Talk: Systematics and Analysis Techniques

    Measuring neutrino CP violation and mass hierarchy is currently one of the biggest challenges in particle physics. The DUNE neutrino experiment is the next-generation flagship neutrino program in the US designed to solve these problems. The DUNE detector uses liquid argon time projection chamber (LArTPC) technology, considerably improving the spatial resolution, neutrino detection efficiency...

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  55. Lingge Li
    Parallel Session Talk: Systematics and Analysis Techniques
  56. Carlos Benitez Montiel (FIUNA)

    In this work, was designed a signal amplification system generated by SiPM sensors to detect photons created by the interaction of muons with plastic scintillators. The Corsi model was used to analyze different electronic topologies for data reading and noise filter using operational amplifiers. Two types of configurations were considered: Transimpedance and Charge Integrator, which were...

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  57. Mr Diego Aranda (Facultad de Ingenieria - Universidad Nacional de Asuncion)

    In this work we study the design of three stages used to read and amplifly the signals coming from 48 SiPM detectors connected in parallel. In the pre amplification stage, the charge integrator circuit and the trans-amplifier circuit are proposed, in the addition stage, a simple adder circuit; and, in the final stage, a low pass Sallen Key filter. A circuit analysis of the stages was done...

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  58. Mr Julián Andrés Calle Mosquera (Universidad de Antioquia)

    The radiative type-I seesaw has been already implemented to explain the lightness of Majorana neutrinos with both Majorana and Dirac heavy fermions, and the lightness of Dirac neutrinos with Dirac heavy fermions. In this work we present a minimal implementation of the radiative type-I seesaw with light Dirac neutrinos and heavy Majorana fermions. An inert doublet and a complex singlet scalar...

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  59. Mr UDAI GIRI PRATAP SINGH SACHAN (BHABHA ATOMIC RESEARCH CENTRE)

    Deep Underground Neutrino Experiment (DUNE) is a facility to carry out studies related to neutrino science and proton decays. The proposed DUNE facility will consist of two neutrino detectors. The near detector is adjacent to beam source whereas far detector is 1300 Km downstream of the source in South Dakota. In near detector, interaction of Neutrinos with High Pressure Gas Time Projection...

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  60. Mr Alexander Bonilla Rivera (UFJF)

    We consider a cosmological lepton asymmetry in the form of neutrinos and impose new expected sensitivities on such asymmetry through the degeneracy parameter (ξ_ν) by using some future CMB experiment configurations, such as CORE and CMB-S4. Taking the default scenario with three neutrino states, we find 𝜉𝜇=0.05±0.10(±0.04)|⁠, from CORE (CMB-S4) at 95 per cent CL, respectively. Also, within...

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  61. Lingge Li

    The unified approach of Feldman and Cousins allows for exact statistical inference of small signals that commonly arise in high energy physics. For instance, the Feldman-Cousins approach has been the gold standard for studying neutrino oscillations. However, the approach relies on the Neyman construction of the classical confidence interval and is computationally intensive as it is typically...

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  62. Sen Qian (Institute of High Energy Physics,CAS)
    Parallel Session Talk: Neutrino Detectors
  63. Juan Pedro Ochoa-Ricoux (University of California at Irvine)
    Parallel Session Talk: Neutrino Detectors

    Liquid Scintillator (LS) detectors have been a workhorse for low energy neutrino physics ever since the discovery of these elusive particles in the late fifties. In the traditional implementation of these detectors, the light produced by particle interactions propagates across transparent scintillator volumes to surrounding photo-sensors. This talk introduces a new concept for LS detection...

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  64. Juan Pedro Ochoa-Ricoux (University of California at Irvine)
  65. Nick Prouse (TRIUMF)
    Parallel Session Talk: Systematics and Analysis Techniques

    Machine learning has the potential to enhance the sensitivities of water Cherenkov detectors by improving the event reconstruction, suppressing backgrounds and reducing systematic uncertainties. These improvements will be vital in achieving the precision measurements that current and next-generation detectors are now aiming to perform.
    This talk covers several areas where machine learning...

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  66. Prof. Yithsbey Giraldo Usuga (Universidad de Nariño)

    In the Standard Model, we will deduce a configuration with five texture
    zeros for the quark mass matrices that it is not of the Fritzsch type. It is valid and generates all the physical quantities of interest: that includes the quark masses, the inner angles of the Cabibbo-Kobayashi-Maskawa unitary triangle, and the phase responsible for the violation of the charge-parity symmetry. To achieve...

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  67. Dr Saul Cuen-Rochin (TRIUMF)
    Parallel Session Talk: Neutrino Detectors

    Hyper-Kamiokande (Hyper-K) is a next generation, water Cherenkov neutrino detector with 260,000 metric tons of ultra-pure water. It will measure accelerator, cosmic and atmospheric neutrinos to discover CP violation in neutrino oscillations, determine the neutrino mass ordering, as well as potentially discover proton decay. Hyper-K is the far-detector of the 300 km long-baseline neutrino...

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  68. Prof. Jose WF Valle (AHEP Group at IFIC, CSIC- U Valencia)
  69. Alexander Parada Valencia (Universidad Santiago de Cali)
    Parallel Session Talk: Systematics and Analysis Techniques

    In different extensions of the Standard Model of Particle Physics (SMPP), the neutrino acquire electric millicharge and charge radius, as well as electric and magnetic dipole moments, the latter being the most studied property in the literature. However, the possibility that neutrino be a millicharged particle has also been a subject of study in different theoretical and experimental works....

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  70. Alexander Parada Valencia (Universidad Santiago de Cali)
    Parallel Session Talk: Systematics and Analysis Techniques

    In different extensions of the Standard Model of Particle Physics (SMPP), the neutrino acquire electric millicharge and charge radius, as well as electric and magnetic dipole moments, the latter being the most studied property in the literature. However, the possibility that neutrino be a millicharged particle has also been a subject of study in different theoretical and experimental works....

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  71. Manuel Arroyave (Manuel)

    The relationship between open source culture and the great physics experiments in the world has always brought great benefits for both sides. However, the challenges to achieving high-performance instrumentation and time development constrain, makes the labor harder in terms of hardware. A method to use and share information in this context is mandatory to achieve experimental designs in...

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  72. Fredy Angel Jimenez Giraldo (Universidad de Antioquia)

    Connes’ noncommutative geometry (NCG) provides a rigorous framework to build the full Lagrangian of the Standard Model (SM) of particle physics. In this framework, there is an underlying finite space associated with each space-time point. Here, the Higgs field appears naturally as the “connection” linked with this new (dimensionless) space. Despite this achievement, in the minimal NCG SM...

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  73. Dr Alexander Quiroga (PUC-Rio)

    We study the signatures of decaying neutrino scenario in T2HKK experiment. Considering a combination of disappearance and appearance channels, for a normal mass ordering and assuming that the heaviest neutrino eigenstate decays, we show by performing an $\chi^2$ analysis, that the $\nu_3$ lifetime divided by its mass can be constrained to $\tau_{3}/m_{3} > 9.4\times 10^{-11} $ s/eV at 95$\%$...

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  74. Mr Edwin Alexander Delgado Insuasty (Pontifical Catholic University of Rio de Janeiro)

    The observation of Earth matter effects in the spectrum of neutrinos coming from a next galactic supernova could, in principle, reveal if neutrino mass ordering is normal or inverted. A way to identify these effects is through the observation of the modulations that appear in the spectrum when neutrinos travel through the Earth before they arrive at the detector. These features in the neutrino...

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  75. Prof. Joshua Spitz (University of Michigan)
    Parallel Session Talk: Systematics and Analysis Techniques

    MicroBooNE is a liquid argon time projection chamber in the Booster
    Neutrino Beam at Fermilab. The large event rate and 3 mm wire spacing
    of the detector provide high-statistics, precise-resolution imaging of
    neutrino interactions leading to low-threshold, high-efficiency event
    reconstruction with full angular coverage. As such, this is an ideal
    place to probe neutrino-argon interactions...

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  76. Andrea Pocar (University of Massachusetts, Amherst)
  77. Hiroshi Nunokawa (Pontificia Universidade Catolica do Rio de Janeiro)
  78. Dr Victor Saul Basto-Gonzalez (Universidad de Pamplona)

    In a model where the right-handed neutrinos can propagate in a large compactified extra dimension and where the left-handed neutrinos are confined to a 4-dimensional spacetime, the oscillation probability in this model is $P_{\alpha\beta}=|\sum_{k=1}^3U^{\alpha k} U^{\beta k *} A_k|^2$, where $A_k=A_k(L,E_\nu,R_{LED}) = \sum_{n=0}^\infty (L_k^{0n})^2\exp(iL\lambda_k^{(n)2}/2E_\nu R^2)$. In...

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  79. Yasuhiro Nakajima (ICRR, the University of Tokyo)
  80. Prof. Joshua Spitz (University of Michigan)
    Parallel Session Talk: Systematics and Analysis Techniques

    The primary goal of MicroBooNE is to address the origin of the excess
    of low energy electromagnetic-like events observed by MiniBooNE.
    This talk will present MicroBooNE's progress towards a low-energy
    excess result, including the status of targeted searches for both
    single-photon-like and electron-like events.

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  81. Mr Ernesto Camacho (Astroparticle Physics Group - Escuela Politécnica Nacional)

    We present a long term analysis of temporal evolution of the gamma-ray source W28, which is a supernova remnant (SNR) observed by the Large Area Telescope (LAT) on board of the Fermi Gamma-Ray Space Telescope since 2008. W28 is an old (3.5 - 4.5x104 yr) galactic diffuse gamma-ray source, located ~2kpc away from us, at (l:6.71, b:0.05) . Observed for more than 10 years, W28 is a interesting...

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  82. Mr wei wang (Nanjing university/Institute of High Energy Physics Chinese Academy of Sciences)
    Parallel Session Talk: Neutrino Detectors

    Taishan Antineutrino Observatory
    Wei Wang,
    On behalf of the JUNO collaboration
    Abstract:
    Many reactor neutrino experiments observed a ~6% deficit in the reactor antineutrino flux compare with the prediction. In addition, Daya Bay confirmed a new anomaly “5-MeV bump” in the spectrum shape. These anomalies require an accurate measurement of the reactor antineutrino spectrum.
    The high...

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  83. Ms PAOLA ANDREA BAQUERO BELTRÁN (Universidad Antonio Nariño)

    SiPM are devices widely used in great experiments on high energy physics to measure the energy related to a specific phenomenon and establish its characteristics. Now, an international collaboration leaded by Fermilab and CERN is working on DUNE project, which use high quantities of SiPM organized in structures; these structures operate as transduction paths for response of photon detection...

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  84. Yithsbey Lucas Giraldo Usuga
    Poster

    By assuming Dirac masses for the neutrinos in a model with the Standard Model interactions and particles plus three right-handed neutrinos, we obtain configurations with five texture zeros for the neutrino mass matrices. This matrix is built in such a way that it reproduces the inner angles of the PMNS and the CP-violating phase in the lepton sector. From this work, non-trivial predictions...

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  85. Chang Kee Jung (Stony brook Universty (US))
    Parallel Session Talk: Neutrino Detectors

    The main purpose of the Deep Underground Neutrino Experiment (DUNE) is to observe the violation of the charge-parity symmetry in neutrino oscillations, proton decay and supernova neutrinos with a liquid-argon far detector of unprecedented size.
    In the near detector complex, a spectrometer system called 3DST-S centered by a 3D projection scintillator tracker (3DST) is proposed and being...

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  86. Tanner Kaptanoglu (University of Pennsylvania)
    Parallel Session Talk: Neutrino Detectors

    Large-scale monolithic water and scintillator neutrino detectors have, for decades, successfully used photons to detect neutrino interactions. Liquid scintillator detectors, due to their high light yields, have far better energy and position resolutions than achievable in a water Cherenkov detector. The most notable advantage of a water Cherenkov detector is the excellent direction...

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  87. Maritza Juliette Delgado Gonzalez (Universidad Antonio Nariño)

    Presently, neutrinos are one of the most mysterious and interesting particles in physics, they seem to be the ones that can explain different processes of high energy physics, antimatter, conservation of energy and momentum in radioactive decay, and contribute with important data for cosmology and astrophysics. To better understand their different properties such as mass, parity, oscillations,...

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  88. Claudio Giganti (LPNHE Paris (IN2P3/CNRS))
    Parallel Session Talk: Neutrino Detectors

    In view of the J-PARC program of upgrades of the beam intensity, the T2K collaboration is preparing towards an increase of the exposure aimed at establishing leptonic CP violation at 3 $\sigma$ level for a significant fraction of the possible $\delta_{CP}$ values. To reach this goal, an upgrade of the T2K near detector ND280 has been launched, with the aim of reducing the overall statistical...

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  89. Mr PRASHANT KUMAR (BHABHA ATOMIC RESEARCH CENTRE)

    Abstract:
    A Deep Underground Neutrino Experiment (DUNE) facility is being set up at Fermi National Accelerator Laboratory. DUNE consisting of two massive particle detectors, one at Fermilab known as Near Detector (ND) and a much larger one to be constructed a mile underneath surface at the Sanford Underground Research Facility in South Dakota (Known as ‘Far Detector’). In the Near Detector,...

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