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Institution

IFAE

OtherBarcelona, Spain
About: IFAE is a other organization based out in Barcelona, Spain. It is known for research contribution in the topics: Large Hadron Collider & Galaxy. The organization has 664 authors who have published 1270 publications receiving 51097 citations. The organization is also known as: Instituto de Fisica de Altas Energias & IFAE.


Papers
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Journal ArticleDOI
Georges Aad1, Brad Abbott2, Dale Charles Abbott3, Ovsat Abdinov4  +2998 moreInstitutions (221)
TL;DR: A mistake was identified for the paper [1] in the treatment of the radion cross-sections, which resulted in multiple changes.
Abstract: Author(s): Aad, G; Abbott, B; Abbott, DC; Abdinov, O; Abed Abud, A; Abeling, K; Abhayasinghe, DK; Abidi, SH; AbouZeid, OS; Abraham, NL; Abramowicz, H; Abreu, H; Abulaiti, Y; Acharya, BS; Achkar, B; Adachi, S; Adam, L; Adam Bourdarios, C; Adamczyk, L; Adamek, L; Adelman, J; Adersberger, M; Adiguzel, A; Adorni, S; Adye, T; Affolder, AA; Afik, Y; Agapopoulou, C; Agaras, MN; Aggarwal, A; Agheorghiesei, C; Aguilar-Saavedra, JA; Ahmadov, F; Ahmed, WS; Ai, X; Aielli, G; Akatsuka, S; Akesson, TPA; Akilli, E; Akimov, AV; Al Khoury, K; Alberghi, GL; Albert, J; Alconada Verzini, MJ; Alderweireldt, S; Aleksa, M; Aleksandrov, IN; Alexa, C; Alexandre, D; Alexopoulos, T; Alfonsi, A; Alhroob, M; Ali, B; Alimonti, G; Alison, J; Alkire, SP; Allaire, C; Allbrooke, BMM; Allen, BW; Allport, PP; Aloisio, A; Alonso, A; Alonso, F; Alpigiani, C; Alshehri, AA; Alvarez Estevez, M; Alvarez Piqueras, D; Alviggi, MG; Amaral Coutinho, Y; Ambler, A; Ambroz, L; Amelung, C; Amidei, D; Amor Dos Santos, SP; Amoroso, S; Amrouche, CS; An, F; Anastopoulos, C; Andari, N; Andeen, T; Anders, CF; Anders, JK; Andreazza, A; Andrei, V; Anelli, CR | Abstract: © 2020, The Author(s). A mistake was identified for the paper [1] in the treatment of the radion [2] cross-sections, which resulted in multiple changes.

7 citations

Journal ArticleDOI
TL;DR: In this paper, the authors define a new limiting procedure that extends the usual thermodynamics treatment of Black Hole physics, to the supersymmetric regime, inspired on equivalent statistical mechanics derivations in dual CFT theory, where the BPS partition function at zero temperature is obtained by a double scaling limit of temperature and the relevant chemical potentials.
Abstract: In this work we define a new limiting procedure that extends the usual thermodynamics treatment of Black Hole physics, to the supersymmetric regime. This procedure is inspired on equivalent statistical mechanics derivations in the dual CFT theory, where the BPS partition function at zero temperature is obtained by a double scaling limit of temperature and the relevant chemical potentials. In supergravity, the resulting partition function depends on emergent generalized chemical potentials conjugated to the different conserved charges of the BPS solitons. With this new approach, studies on stability and phase transitions of supersymmetric solutions are presented. We find stable and unstable regimes with first order phase transitions, as suggested by previous studies on free supersymmetric Yang Mills theory.

7 citations

Journal ArticleDOI
A. Carnero Rosell1, A. Carnero Rosell2, M. Rodriguez-Monroy, Martin Crocce2, Jack Elvin-Poole3, A. Porredon3, I. Ferrero4, J. Mena-Fernández, R. Cawthon5, J. De Vicente, Enrique Gaztanaga2, Ashley J. Ross3, E. J. Sanchez, I. Sevilla-Noarbe, O. Alves2, O. Alves6, F. Andrade-Oliveira2, Jacobo Asorey, Santiago Avila7, A. Brandao-Souza8, H. Camacho2, K. C. Chan2, Agnès Ferté9, J. Muir10, W. Riquelme7, Rogerio Rosenfeld2, D. Sanchez Cid, W. G. Hartley11, N. Weaverdyck6, T. M. C. Abbott, Michel Aguena, S. Allam12, J. Annis12, E. Bertin13, David J. Brooks14, E. Buckley-Geer12, E. Buckley-Geer15, D Burke16, D Burke9, J. Calcino17, Daniela Carollo18, M. Carrasco Kind19, M. Carrasco Kind20, J. Carretero21, F. J. Castander2, A. Choi3, Christopher J. Conselice22, Christopher J. Conselice23, M. Costanzi24, M. Costanzi18, L. N. da Costa, M.E. da Silva Pereira6, Tamara M. Davis17, S. Desai25, H. T. Diehl12, Peter Doel14, Alex Drlica-Wagner15, Alex Drlica-Wagner12, K. D. Eckert26, S. Everett27, August E. Evrard6, B. Flaugher12, Pablo Fosalba2, Josh Frieman15, Josh Frieman12, Juan Garcia-Bellido7, D. W. Gerdes6, Tommaso Giannantonio28, Karl Glazebrook29, Daniel Gruen30, Robert A. Gruendl19, Robert A. Gruendl20, J. Gschwend, G. Gutierrez12, Samuel Hinton17, D. L. Hollowood27, K. Honscheid3, Ben Hoyle30, Dragan Huterer6, David J. James31, A. G. Kim32, Elisabeth Krause33, Kyler Kuehn34, Kyler Kuehn35, Ofer Lahav14, Geraint F. Lewis36, C. Lidman37, Marcos Lima38, M. A. G. Maia, U. Malik37, Jennifer L. Marshall39, Felipe Menanteau19, Felipe Menanteau20, Ramon Miquel21, Ramon Miquel40, Joseph J. Mohr41, Joseph J. Mohr30, Anais Möller42, Robert Morgan5, R. L. C. Ogando, Antonella Palmese12, Antonella Palmese15, F. Paz-Chinchón28, F. Paz-Chinchón19, Will J. Percival43, Will J. Percival44, Adriano Pieres, A. A. Plazas Malagón45, A Roodman9, A Roodman16, V. Scarpine12, Michael Schubnell6, S. Serrano2, Rob Sharp37, Erin Sheldon46, M. Smith47, M. Soares-Santos6, E. Suchyta48, M. E. C. Swanson19, G. Tarle6, Daniel Thomas49, Chun-Hao To10, Chun-Hao To9, Chun-Hao To16, B. E. Tucker37, Douglas L. Tucker12, S. A. Uddin50, T. N. Varga30, T. N. Varga41 
University of La Laguna1, Spanish National Research Council2, Ohio State University3, University of Oslo4, University of Wisconsin-Madison5, University of Michigan6, Autonomous University of Madrid7, State University of Campinas8, California Institute of Technology9, Stanford University10, University of Geneva11, Fermilab12, Institut d'Astrophysique de Paris13, University College London14, University of Chicago15, SLAC National Accelerator Laboratory16, University of Queensland17, INAF18, National Center for Supercomputing Applications19, University of Illinois at Urbana–Champaign20, IFAE21, University of Manchester22, University of Nottingham23, University of Trieste24, Indian Institute of Technology, Hyderabad25, University of Pennsylvania26, Santa Cruz Institute for Particle Physics27, University of Cambridge28, Swinburne University of Technology29, Ludwig Maximilian University of Munich30, Smithsonian Institution31, Lawrence Berkeley National Laboratory32, University of Arizona33, Lowell Observatory34, Macquarie University35, University of Sydney36, Australian National University37, University of São Paulo38, Texas A&M University39, Catalan Institution for Research and Advanced Studies40, Max Planck Society41, University of Auvergne42, University of Waterloo43, Perimeter Institute for Theoretical Physics44, Princeton University45, Brookhaven National Laboratory46, University of Southampton47, Oak Ridge National Laboratory48, Institute of Cosmology and Gravitation, University of Portsmouth49, University of Texas at Austin50

7 citations

Journal ArticleDOI
TL;DR: Lumos as mentioned in this paper is a deep learning method to measure photometry from galaxy images using BKGnet, an algorithm to predict the background and its associated error, and predicts the background-subtracted flux probability density function.
Abstract: With the dramatic rise in high-quality galaxy data expected from Euclid and Vera C Rubin Observatory, there will be increasing demand for fast high-precision methods for measuring galaxy fluxes These will be essential for inferring the redshifts of the galaxies In this paper, we introduce Lumos, a deep learning method to measure photometry from galaxy images Lumos builds on BKGnet, an algorithm to predict the background and its associated error, and predicts the background-subtracted flux probability density function We have developed Lumos for data from the Physics of the Accelerating Universe Survey (PAUS), an imaging survey using 40 narrow-band filter camera (PAUCam) PAUCam images are affected by scattered light, displaying a background noise pattern that can be predicted and corrected for On average, Lumos increases the SNR of the observations by a factor of 2 compared to an aperture photometry algorithm It also incorporates other advantages like robustness towards distorting artifacts, eg cosmic rays or scattered light, the ability of deblending and less sensitivity to uncertainties in the galaxy profile parameters used to infer the photometry Indeed, the number of flagged photometry outlier observations is reduced from 10% to 2%, comparing to aperture photometry Furthermore, with Lumos photometry, the photo-z scatter is reduced by ~10% with the Deepz machine learning photo-z code and the photo-z outlier rate by 20% The photo-z improvement is lower than expected from the SNR increment, however currently the photometric calibration and outliers in the photometry seem to be its limiting factor

7 citations

Journal ArticleDOI
TL;DR: In this article, the microscopic statistical foundation of the supergravity description of the simplest 1/2 BPS sector in the AdS(5)/CFT(4) was studied.
Abstract: In this article, we work out the microscopic statistical foundation of the supergravity description of the simplest 1/2 BPS sector in the AdS(5)/CFT(4). Then, all the corresponding supergravity observables are related to thermodynamical observables, and General Relativity is understood as a mean-field theory. In particular, and as an example, the Superstar is studied and its thermodynamical properties clarified.

6 citations


Authors

Showing all 672 results

NameH-indexPapersCitations
J. S. Lange1602083145919
Diego F. Torres13794872180
M. I. Martínez134125179885
Jose Flix133125790626
Matteo Cavalli-Sforza129127389442
Ilya Korolkov12888475312
Martine Bosman12894273848
Maria Pilar Casado12898178550
Clement Helsens12887074899
Imma Riu12895473842
Sebastian Grinstein128122279158
Remi Zaidan12674471647
Arely Cortes-Gonzalez12477468755
Trisha Farooque12484169620
Martin Tripiana12471669652
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Performance
Metrics
No. of papers from the Institution in previous years
YearPapers
20232
202210
2021119
2020150
2019133
2018154