Neutrino Physics with the KamLAND Detector

Physics – Nuclear Physics

Scientific paper

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Scientific paper

We present the initial design of a very large liquid scintillator detector to be installed in the underground cavity where Kamiokande was once sited. The experiment is optimized to detect low-energy anti-neutrinos and will perform unique measurements in the fields of neutrino physics, geophysics and astrophysics. KamLAND is conceived as a ``scalable'' detector that will be able to start in a very short time. This first stage detector will be able to deliver results on a number of essential physics issues that only require present day technology. This first running period will also establish backgrounds and detector requirements for a second ultra-low background running phase. One of the initial aims will be to perform a very long baseline oscillation experiment using several nuclear reactors. This can be considered the ``ultimate'' neutrino mass test using the oscillation technique. The observation of neutrinos from the Earth, supernovae, atmosphere and nucleon decay will also be part of a very ambitious initial program, while in a later stage the observation of solar neutrinos will become the main focus

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