We report the results obtained by applying digital pulse shape acquisition and digital signal processing to the signals from CsI(Tl) scintillators read out by photodiodes at high incident energy (400 MeV/u). The digitized signals allows the discrimination of light charged particles by computing the Fast and Slow components and the Rise Time of the output pulses of the CsI(Tl). When the energies of the light charged particles exceed those corresponding to their ranges in CsI(Tl), the points related to the punching-through particles gather in the corresponding scatter plots giving rise to a cusp. The punching-through points are used as energy calibration points for the reaction products stopped in the CsI(Tl). The obtained results suggest tha...
Modern experimental setups tend to replace analogue front-end electronics with fully digital systems...
Extending pulse shape discrimination (PSD) to digitized signals is one of the most promising methods...
This research was sponsored by the National Science Foundation Grant NSF PHY-931478
We report the results obtained by applying digital pulse shape acquisition and digital signal proces...
We investigated the merits of different event parameters in the identification of Light Charged Part...
We investigated the merits of different event parameters in the identification of Light Charged Part...
A method for the intrinsic energy calibration of photomultiplier-coupled CsI(Tl) detectors is descri...
The design of modern multi-detector arrays for Intermediate Energy Nuclear Physics experiments has t...
none48Heavy ion studies with stable and exotic beams require the identification of nuclear frag- ment...
The response of silicon-silicon-CsI(Tl) telescopes, developed within the FAZIA collaboration, to fra...
The capability of digital pulse shape technique to acquire data from CHIMERA detection cells (Si-CSI...
This thesis work concerns the developments in the field of pulse shape analysis of detector signals ...
Modern experimental setups tend to replace analogue front-end electronics with fully digital systems...
Pulse shape discrimination with pure CsI scintillators is investigated as a method for separating en...
none51The response of silicon–silicon–CsI(Tl) telescopes, developed within the FAZIA collaboration, ...
Modern experimental setups tend to replace analogue front-end electronics with fully digital systems...
Extending pulse shape discrimination (PSD) to digitized signals is one of the most promising methods...
This research was sponsored by the National Science Foundation Grant NSF PHY-931478
We report the results obtained by applying digital pulse shape acquisition and digital signal proces...
We investigated the merits of different event parameters in the identification of Light Charged Part...
We investigated the merits of different event parameters in the identification of Light Charged Part...
A method for the intrinsic energy calibration of photomultiplier-coupled CsI(Tl) detectors is descri...
The design of modern multi-detector arrays for Intermediate Energy Nuclear Physics experiments has t...
none48Heavy ion studies with stable and exotic beams require the identification of nuclear frag- ment...
The response of silicon-silicon-CsI(Tl) telescopes, developed within the FAZIA collaboration, to fra...
The capability of digital pulse shape technique to acquire data from CHIMERA detection cells (Si-CSI...
This thesis work concerns the developments in the field of pulse shape analysis of detector signals ...
Modern experimental setups tend to replace analogue front-end electronics with fully digital systems...
Pulse shape discrimination with pure CsI scintillators is investigated as a method for separating en...
none51The response of silicon–silicon–CsI(Tl) telescopes, developed within the FAZIA collaboration, ...
Modern experimental setups tend to replace analogue front-end electronics with fully digital systems...
Extending pulse shape discrimination (PSD) to digitized signals is one of the most promising methods...
This research was sponsored by the National Science Foundation Grant NSF PHY-931478