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M. Aglietta,
B. Alpat,
E. D. Alyea,
B. Alessandro,
P. Antonioli,
G. Anzivino,
F. Arneodo,
G. Badino,
Y. Ban,
G. Bari, [......],
I. Yamamoto,
G. Yi,
A. Zallo,
G. T. Zatsepin,
X. Zhou,
Q. Zhu,
X. Zhu, B. Zhuan,
A. Zichichi,
EAS-TOP and LVD Collaborations
[show abstract]
[hide abstract]
ABSTRACT: We present the first results of the combined measurements of the EAS-TOP (at the surface) and LVD (deep underground) detectors
operating as a combined telescope in the study of UHE cosmic rays and their interactions. Examples of different classes of
events and their significance in different high-energy and astrophysical studies are discussed.
Il Nuovo Cimento A 11/1992; 105(12):1815-1823.
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M. Aglietta,
B. Alpat,
E. D. Alyea,
P. Antonioli,
G. Anzivino,
G. Badino,
Y. Ban,
G. Bari,
M. Basile,
A. Benelli, [......],
V. F. Yakushev,
I. Yamamoto,
G. Yi,
A. Zallo,
G. T. Zatsepin,
X. Zhou,
Q. Zhu,
X. Zhu, B. Zhuan,
A. Zichichi
[show abstract]
[hide abstract]
ABSTRACT: The Large Volume Detector (LVD) in the Gran Sasso underground Laboratory is a multipurpose detector consisting of a large
volume of liquid scintillator interleaved with limited streamer tubes. In this paper we discuss its power to study low-energy
cosmic neutrinos. The results show that the first LVD tower (368 tons of liquid scintillator) is well suited to detect neutrinos
from gravitational stellar collapses within all of our Galaxy over a wide range of burst duration (up to a few hundred seconds).
No burst candidates have been observed in the first two months of data taking.
Il Nuovo Cimento A 01/1992; 105(12):1793-1804.
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M. Aglietta,
B. Alpat,
E.D. Aleya,
P. Antonioli,
G. Anzivino,
G. Badino,
Y. Ban,
G. Bari,
M. Basile,
A. Benelli, [......],
Z. Xu,
V.F. Yakushev,
I. Yamamoto,
G. Yi,
A. Zallo,
G.T. Zatsepin,
X. Zhou,
X. Zhu, B. Zhuan,
A. Zichichi
[show abstract]
[hide abstract]
ABSTRACT: The Large Volume Detector (LVD) in the Gran Sasso underground Laboratory is a multipurpose detector consisting of a large volume of liquid scintillator interleaved with limited streamer tubes. In this paper we discuss its power to study low energy cosmic neutrinos. The results show that the first LVD tower (368 tons of liquid scintillator) is well suited to detect neutrinos from gravitational stellar collapses within all of our Galaxy over a wide range of burst duration (up to a few hundred seconds). No burst candidates have been observed in the first two months of data taking.
Nuclear Physics B - Proceedings Supplements.