N. Arsene
University of Bucharest
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Featured researches published by N. Arsene.
Astroparticle Physics | 2014
N. Arsene; Xavier Calmet; Laurentiu Ioan Caramete; Octavian Micu
Abstract We propose a decay signature for non-thermal small black holes with masses in the TeV range which can be discovered by neutrino observatories. The black holes would result due to the impact between ultra high energy neutrinos with nuclei in water or ice and decay instantaneously. They could be produced if the Planck scale is in the few TeV region and the highly energetic fluxes are large enough. Having masses close to the Planck scale, the typical decay mode for these black holes is into two particles emitted back-to-back. For a certain range of angles between the emitted particles and the center of mass direction of motion, it is possible for the detectors to measure separate muons having specific energies and their trajectories oriented at a large enough angle to prove that they are the result of a back-to-back decay event.
European Physical Journal C | 2016
N. Arsene; Roberto Casadio; Octavian Micu
We investigate black hole production in
arXiv: High Energy Astrophysical Phenomena | 2015
N. Arsene; Octavian Sima
Romanian Reports in Physics | 2013
N. Arsene; Lauretiu Ioan Caramete; Peter B. Denton; Octavian Micu
p\,p
Physics Letters B | 2016
A. Aab; P. Abreu; M. Aglietta; E. J. Ahn; I. Al Samarai; Albuquerque I.F.M.; I. Allekotte; P. Allison; A. Almela; Castillo J. Alvarez; J. Alvarez-Muñiz; M. Ambrosio; G. A. Anastasi; Luis A. Anchordoqui; B. Andrada; S. Andringa; C. Aramo; F. Arqueros; N. Arsene; H. Asorey; P. Assis; J. Aublin; G. Avila; A. M. Badescu; A. Balaceanu; C. Baus; J. J. Beatty; K. Becker; J. A. Bellido; C. Berat
Astroparticle Physics | 2016
N. Arsene; Octavian Sima; A. Haungs; Heinigerd Rebel
pp collisions at the Large Hadron Collider by employing the horizon quantum mechanics for models of gravity with extra spatial dimensions. This approach can be applied to processes around the fundamental gravitational scale and naturally yields a suppression below the fundamental gravitational scale and for increasing number of extra dimensions. The results of numerical simulations performed with the black hole event generator BLACKMAX are here reported in order to illustrate the main differences in the numbers of expected black hole events and mass distributions.